ABSTRACTS

1

General Information
SCOPE OF THE CONFERENCE• 1-703-572-2700• Hotel Direction: 45 miles North

The 10th Joint MMM/Intermag Conference is sponsored jointly by theAmerican Institute of Physics 共PCI兲 and the Magnetics Society of theIEEE, in cooperation with The American Physical Society. Members of
the international scientific and engineering communities interested in recent developments in fundamental and applied magnetism are invited toattend the Conference and contribute to its technical sessions. Sessions
will include invited and contributed papers, oral and poster presentations
and invited symposia. This Conference provides an outstanding opportunity for participants to meet their colleagues and discuss new, advanced
and controversial developments.

• Driving Directions: From Reagan National Airport, Washington DC:
Take George-Washington Parkway North to I-495 and proceed North toI-95 North. Follow I 95 North to I 395 to Pratt Street, turn right. Proceedon Pratt Street to President’s Street. Turn right onto President’s Street.
Turn right onto Aliceanna. The hotel is on the right.
• Estimated taxi fare: $100 USD 共one way兲
Washington, DCÕDulles – IAD• 1-703-417-8000• Hotel Direction: 52 miles Northeast

BALTIMORE, MARYLAND
There’s no better place to get acquainted with America-its historic past andexciting future-than in Baltimore. Baltimore offers a world of unique attractions, entertainment, fine dining, and one-of-a-kind experiences. Get
your feet wet at the National Aquarium in Baltimore. Marvel at the American Visionary Arts Museum. Explore the city’s amazing maritime heritageof tall ships and workboats as you stroll through the Inner Harbor, which
is one of the top destinations in the City of Baltimore. It has been one of
the major seaports in the United States since the 1700s, and started blossoming into the cultural center of the City in the1970s. Today you’ll finda wide array of things to do - all within walking distance. For more
information on what to see and do in Baltimore, please visit the Convention Bureau website at www.baltimore.org.

VISA REQUIREMENTS
Citizens of other countries must carry a valid passport and visa to enter theUSA. Foreign participants should contact the United States Embassy, Consulate, or Office of Tourism in their home country AS SOON AS POSSIBLE to determine their particular visa requirements. Participants requiring visas must initiate the application process many months inadvance of their departure date. If you need a personal letter of invitation to attend the Conference, contact 2007 Joint MMM/Intermag Conference, c/o Courtesy Associates, 2025 M Street, NW, Suite 800, Washington,
DC, 20036; E-mail: 2007Joint@courtesyassoc.com; Fax: 202-973-8722.
Be sure to provide your complete mailing address so that a signed
letter of invitation can then be mailed to you via standard mail service
since only an original copy 共not faxed or e-mail version兲 will be acceptedwith your visa application. To determine if your passport is in order, andwhether or not you require a visa, you must check locally with yourcountry’s embassy or consulate.
NOTE: The Conference CANNOT contact or intervene with any U.S.
Embassy or Consulate office abroad on your behalf.

TRANSPORTATION
Baltimore-Washington International – BWI * 1-410-859-7111 * Hotel
Direction: 12 miles Southeast * Driving Directions: From BaltimoreWashington International Airport: Take Baltimore/Washington Parkway
North, 8 miles to Pratt Street, turn right. Proceed to President Street andturn right. Get into the right-hand lane and proceed straight. At stop sign,
go straight. Hotel will be on your right.
• Estimated taxi fare: $23 USD 共one way兲
Washington, DCÕNationalÕ Reagan Airport – DCA• Driving Directions: From Washington Dulles International Airport: Take
the Dulles Toll Road East to I-495 North. Proceed on I-495 North to I 95
North. Follow I 95 North to I 395 Downtown Baltimore to Pratt Street,turn right. Proceed on Pratt Street to President’s Street, turn right onto
President’s Street. Turn right onto Aliceanna. The hotel is on the right.
• Estimated taxi fare: $125 USD 共one way兲
Airport shuttle service is a less expensive alternative to a taxi . One company is Supershuttle 1-800-BLUE VAN 共258-3826兲. Call or check thewebsite 共www.supershuttle.com兲 for more information.

HOTEL
The Baltimore Marriott Waterfront is located at the center of the city’s
dining, shopping and sightseeing district, overlooking Baltimore’s Inner
Harbor. All guestrooms offer a water view. The special hotel room rates
for 2007 Joint Conference attendees will be $143/single or double plus
applicable taxes. In addition there are a limited number of governmentrated rooms available for which a government I.D. must be presented uponcheck-in. However, should the Federal government per diem rate go up for
2007, you may find that the conference rate is lower.
The Hotel Room Reservation Form and a direct link to the Marriott’s
reservation system can be found on the 2007 Joint Conference homepage at www.magnetism.org. Making a hotel room reservation via theweb site is the fastest way to book the room you want, and will provide
you with an immediate confirmation. You may book your room by goingdirectly to the Baltimore Marriott Waterfront reservations web site link at:www.marriott.com/bwiwf. Please enter your desired reservation dates,
then type in magmaga in the GROUP CODE box and click the FIND
button. This will ensure that you receive the special 2007 Joint Conferencegroup rates. If you choose to make your reservation by telephone 共1-410385-3000兲 or by fax 共1-410-895-1900兲 be sure to mention this group code
as well.
The hotel can serve all special needs, so please make your requests when
you reserve your room. You will receive confirmation of your hotel
reservation by email as long as you enter your correct email address on
the reservation form. If you do not receive your confirmation within two
weeks, please call the hotel to confirm your reservation, and ask for yourconfirmation number so that you can carry it with you when you come.
Each Conference participant is responsible for making his/her own hotel
reservation and for paying all personal bills upon checkout.
HELP KEEP YOUR CONFERENCE FEES DOWN: Costs for the
Joint Conference meeting space are minimized by meeting pre-establishedtargets for room occupancy at the Joint Conference hotel. Please support
the Steering Committee and Advisory Committee in their attempt to keep
your Conference registration fees as low as possible by booking yourroom at the Marriott Hotel for the 2007 Joint MMM/Intermag Conference
before the cutoff date of Monday, December 11th.

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ABSTRACTS

Your hotel room reservation must be received by the Baltimore Marriott Waterfront no later than Monday, December 11th , in order for
you to receive the special Joint Conference rates.

• Recent advances in modeling of magnetic and spin dependent properties• Probing the magnetic structure of nanostructured exchange• Bose-Einstein condensation and quantum magnets
Check the Program for specific times and locations.

CONFERENCE REGISTRATION
You can register in advance at a reduced rate prior to Monday, December 11, 2006. You are encouraged to register via the secure web site, or
you may also register by completely filling out the Advance Registration
Form on the web site: http:ÕÕwww.magnetism.orgÕ. Payment in U.S. dollars must be made by personal or corporate check 共drawn on a U.S. bankonly兲, or by MasterCard, Visa or American Express credit card. Make
checks payable to ‘‘Joint MMMÕIntermag 2007.’’ All 2007 Joint Conference attendees, including speakers, must pay registration fees.
Onsite registration during the Conference will be at the higher rates
listed below. After December 11th, only the higher registration fees will
be accepted, and only at the Onsite Registration Desks at the Conference.
Forms not accompanied by payment or with incomplete or incorrect
credit card information will be considered ‘‘late’’ and the higher rates
will be collected onsite at the Conference.
Registration Fees:

Full Registrant Member
Full Registrant Non-Member
Student/Unemployed Retiree

Prior to October 7th After October 7th
$598
$678
$718
$798
$298
$338

You are eligible to register at the Member rate ONLY if you belong to 共atleast兲 one of the Professional Societies which is listed on the web site
http:ÕÕwww.magnetism.orgÕ. If you are not a member of any of thesesocieties, you must pay the Non-Member registration fee. Proof of Society
membership will be checked at the Registration Desk.
Early Bird Registration Date of November 3, 2006: You will receive a
printed copy of the Advance Program Book ONLY if you register prior to
the Early Bird Deadline of Friday, November 3, 2006. A pdf version of theAdvance Program is available online.
Registration Cancellation Policy: Cancellations of advance registrations
must be submitted in writing and received at YesEvents no later than
Monday, December 11, 2006. Refunds of the original payment, less a $75
service fee, will be mailed following the Conference. Substitutions may
be made at any time, including onsite, for a registrant who cannot
attend but has paid the registration fee in advance.
The Conference Registration Desks, located in the Grand Ballroom Foyer
on the 3rd Floor of the Baltimore Marriott Waterfront, will be open during
the following hours:
Sunday, January 7th
Monday, January 8th
Tuesday, January 9th
Wednesday, January 10th
Thursday, January 11th

4:00 PM – 8:00 PM
6:30 AM - 4:00 PM
7:00 AM – 2:30 PM
7:00 AM – 2:30 PM
7:00 AM – 2:00 PM

CONFERENCE SYMPOSIA
During the Conference, there will be technical symposia on the topics• Interfaces in Magnetic Tunnel Junctions• Spin manipulation in semiconductors and metals for spintronics• Magnetic MEMS technologies• Driven domain wall dynamics

SUNDAY EVENING TUTORIAL
On Sunday evening, January 7th , before the start of the technical program,
there will be a tutorial session on ‘‘Spin Torque’’ in the Harborside Ballroom Salons C-E on the 4th Floor of the hotel. The aim of the tutorial is toprovide a broad introduction to the physics of spin torque, geared toward
the non- expert. The tutorial begins at 7:00 PM and each talk is 36 minutes
long. The speakers are Tom Silva 共NIST兲, Andrei Slavin 共Oakland University兲, and Pieter Visscher 共University of Alabama兲. Their presentations
will focus on an introduction to spin torque 共Silva兲, nonlinear microwave
dynamics 共Slavin兲, and large angle precession dynamics and visualizations
共Visscher兲. The tutorial will be chaired by Carl Patton 共Colorado State
University兲.

IEEE MAGNETICS SOCIETY GENERALMEETING
This meeting is open to all Joint Conference participants. Please come tolearn about the IEEE Magnetics Society. The meeting will be held on
Monday, January 8th , at 3:00-3:30 PM, just prior to the Plenary Session
and Awards Ceremony. The location will be the Dover Room on the 4th
Floor of the hotel.

PLENARY SESSION
Presentation of the IEEE Awards will be done at the Plenary Session on
Monday, January 8th at 3:45 PM in the Harborside Ballroom on the 4th
Floor of the hotel. The Finalists for the Best Student Presentation Award
will also be acknowledged during this session. The keynote speaker isSamuel Bader of Argonne National Laboratory. His talk is titled: ‘‘Opportunities in Nanomagnetism.’’
Abstract: Nanomagnetism is the discipline dealing with magnetic phenomena specific to structures having dimensions in the submicron range. This
talk addresses the challenges and scientific problems in this emerging area,
including its fabrication strategies, and describes experiments that explore
new spin-related behaviors in metallic systems as well as efforts to understand the observed phenomena. As a subfield of nanoscience, nanomagnetism shares many of the same basic organizing principles such as geometric confinement, physical proximity, and chemical self-organization.
These principles are illustrated by means of examples drawn from thequests for ultrastrong permanent magnets, ultra-high-density magnetic recording media, and nanobiomagnetic sensing strategies. As a final example showing the synergetic relationships to other fields of science, themanipulation of viruses to fabricate magnetic nanoparticles is discussed.
This work was supported by Department of Energy, Basic Energy Science
under contract W-31-109-ENG-38.
Sam Bader received a B.S. 共1967兲 and Ph.D. 共1974兲 from UC-Berkeley.
He then went to Argonne as a post-doc, in 1977 becoming a staff member.
Presently he is a Senior Physicist and Group Leader of the Magnetic Films
Group and an Associate Division Director of Argonne’s Materials Science
Division, and Scientific Director of the new Center for Nanoscale Materials He is co-author of 330 publications and appeared in the ISI 1981-97⬙most cited physicists⬙ listing. He is a Fellow of the AVS and the APS. He
received the DOE-BES Award in Solid State Physics for work on coupledmagnetic layers in 1992, the University of Chicago Award for Distin-ABSTRACTS
guished Performance at Argonne in 1994, and the AVS Thornton Awardfor ‘‘surface and thin film magnetism⬙ in 2001. He is Editor of the Journalof Magnetism and Magnetic Materials and Associate Editor of Applied
Physics Letters. He was chair of the APS Division of Materials Physics in2004-2005.

PLENARY RECEPTION
Immediately following the Plenary Session and Awards Ceremony, there
will be a Reception for all registered participants. This will be in lieu of
the Bierstube on Monday evening, January 8th . The Reception will beheld in the Harborside Ballroom Foyer on the 4th Floor of the hotel. Allregistered participants are invited to attend free of charge.

SPECIAL TUESDAY EVENING SESSION
There will be a special evening Symposium on Tuesday January 9th starting at 7:30 PM in the Harborside Ballroom Salons C-E on the 4th Floor of
the hotel. The symposium is titled ‘‘Magnetic Memories, Past andPresent,’’ and will cover a historical overview of magnetic memories, including bubble memories and MRAMs, intended for a general audience.
The speakers for this symposium are William Doyle, Robert Fontana, andBrad Engel, and the session will be chaired by William Gallagher.

WOMEN’S NETWORKING RECEPTION
There will be a Networking Reception for women in the magnetism community on Wednesday January 10th beginning at 5:30 PM in the Kent
Room located on the 4th Floor of the hotel. At the reception, there will be
the opportunity to form dinner groups in order to get to know one anotherbetter. All graduate students, researchers and retirees are encouraged toattend. For questions, contact Patricia Sparks from Harvey Mudd College
共sparks@HMC.edu兲.

BIERSTUBE AND COFFEE
Coffee service will be available on Tuesday through Thursday mornings
from 7:00 AM – 9:30 AM in the Grand Ballroom on the 3rd Floor among
the Exhibits and Poster Sessions. On Monday morning, when the exhibits
are not open, the coffee service will be in the Grand Ballroom Foyer.
On Sunday evening the Bierstube will be in the Harborside Ballroom
Foyer on the 4th Floor from 5:00 PM – 8:00 PM. On Tuesday andWednesday evenings, the Bierstube will be held from 5:00-6:30 PM in the
Exhibitor Pavilion on the 3rd Floor.

WIRELESS ACCESS
Wireless Access will be available on Monday through Thursday in theGrand Ballroom on the 3rd Floor among the Exhibits and Poster Sessions.
The Access Code and hours will be posted on signs in the Grand Ballroom.

3

Atlantic and Bristol Rooms located on the 4th Floor of the hotel. Theserooms will be open and staffed as follows:
Monday, January 8th – Wednesday, January 10th
Thursday, January 11th

9:00 AM – 5:00 PM
9:00 AM – 2:00 PM

SPEAKER PRACTICE ROOM
Speakers are reminded that the Joint Conference is planning an allelectronic presentation format. Just prior to making their oral presentation,authors will attach their own laptop computers to digital projection equipment supplied by the Joint Conference. You should come prepared withyour presentation in Microsoft PowerPoint format for a PC, or else on a
MAC. Please take the time to test your computer with the in-house equipment provided in the Speaker Practice Room well before the day and timeof your individual presentation. Speakers may use either the Iron orJames Room, located on the 4th Floor of the hotel, to practice theirpresentations. Audiovisual equipment 共LCD projector and screen兲 will beavailable there for authors to use from 8:00 AM until 5:00 PM on Monday
through Thursday. Speakers are urged to use this facility to practice theirpresentation, either alone or with colleagues.

LCD PROJECTORSThis year only LCD projectors will be available for oral presentations.
Authors are expected to bring their presentation on their own laptop computer, and have it powered on and ready to connect to the projector. Only
standard PC-style VGA connections to the LCD projector will be supplied, therefore you must supply any required adaptor to your computer. Macintosh users must make sure that ‘‘mirroring’’ is activated.
There will also be a switchbox so that a speaker can set up his/her laptop
during the question period of the previous speaker. Each speaker will besolely responsible for promptly connecting to the projector. The presentation timer will begin immediately after the introduction by the Session Chair, and there will not be time to reboot your computer. You are
therefore STRONGLY ENCOURAGED to test your laptop connections
and screen resolution settings with the projectors in the Speaker PracticeRoom. There will be no technical support provided. In case of laptop
failure, it would be prudent to bring a copy of your presentation on
flash memory.

POSTER SESSIONSThe Poster Sessions will be held in the Grand Ballroom 共3rd Floor兲 on
Monday from 8:00 AM–12:00 Noon and on Tuesday through Wednesday
from 8:00 AM–12:00 Noon and 1:00 PM–5:00 PM; and on Thursday
morning from 8:00 AM until 12:00 Noon. Authors should set up theirmaterials at least half an hour before session start times. They must be by
their posters from 8:00–9:00 AM and 11:00 AM-12:00 Noon for the morning sessions, and from 1:00-2:00 PM and 4:00-5:00 PM for the afternoon
sessions. The surface area available for posters is 8’ long by 4’ high.
Authors are reminded to remove all of their materials, excluding the pushpins that have been provided by the Conference, promptly at the end of
their session. The Conference staff will discard materials that are not removed promptly, in order to prepare for the next session.

EXHIBITSPUBLICATIONS ROOM
The Publications Rooms for both the J. Appl. Phys. and the IEEE, where
authors can check the status of their manuscripts, will be located in the

At the 2007 Joint Conference equipment suppliers, vendors and companies
will have a rare opportunity to interface with over 1300 magnetics researchers, with wide ranging interests from magnetic recording phenom-

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ABSTRACTS

ena to biomagnetism. The 2007 Joint MMM/Intermag Conference willplace your company in direct contact with the scientific, physics andengineering community that needs your products and services to stayat the forefront of research and technology.

Nature of the Award: This award consists of a $50 certificate. The awards
will be made in the last hour of each poster session. A ribbon will also be
attached to the successful posters. Winning posters will be prominently
displayed through the remainder of the conference.

Included in the exhibitor package is the opportunity for a 25-minute presentation in the Exhibitor Theater, multiple company listings onsite, inprinted materials and on the Conference website.

Eligibility: All posters will be eligible for nomination for this award providing they meet the requirements and guidelines for the Conference
poster presentations and sessions, as described on the website. The presentations should consist of well-prepared visual materials about the work,
posted on a designated board. It is required that an author be registered forthe conference and in attendance to present details and answer questions
during the designated session time. Since the award will be made at thesession, it is recommended that the authors be present for the majority ofthe session. All posters must include a full contact mailing address in thecase that the authors are not present when the award is made.

The Exhibitor Pavilion
The Exhibitor Pavilion will be located in the Grand Ballroom on Tuesday
through Thursday, January 9th-11th. All exhibitors receive an 8’x10’ exhibit booth and are entitled to one 25-minute presentation in which topreview their latest products or services in the Exhibitor Theater on thePavilion floor, as well as multiple listings onsite, in print and on the
Conference website. Please see below for additional corporate exposure
opportunities.
Companies interested in purchasing booth space should contact Roseann
Kuryla, Exhibits Coordinator at Courtesy Associates at: e-mail: 2007joint@courtesyassoc.com; Fax: 202-973-8722. The Exhibitor Prospectus isdownloadable from the www.magnetism.org web site, and are also available in print upon request.

CORPORATE PROMOTIONAL OPPORTUNITIESCompanies interested in gaining unique exposure to the 2007 Joint Conference attendees will have the opportunity to promote different areas ofthe event, ranging from your company logo printed on registration bags
and lanyards to hosting an Internet Lounge in the Exhibitor Pavilion.
These opportunities are open to all. They will be listed on the 2007 Joint
Conference website, and will be on a first-paid-first-served basis.

BEST STUDENT PRESENTATION AWARD
This year, there is a competition for the best student presentation at the
Joint Conference to recognize and encourage excellence in graduate studies in the field of magnetism. This award is available to any full time
graduate student who is expected to graduate within one year of the Joint
Conference. The student’s area of research may either be theoretical orexperimental in any of the general technical and scientific areas normallypresented as part of the Joint Conference. This award consists of a one
year fellowship of $1000 for the award winner and a one year fellowshipof $250 to each of the remaining finalists. The names of the finalists
competing for the award are: Robert Compton, Xiaohua Lou, Ezana Negusse, Rajesh Chopdekar and Thomas Hauet. The presentations, whichmust be made by the finalist, will be evaluated at the Conference by theStudent Award sub-committee and the winner will be announced shortly
after the conclusion of Joint Conference.

Best 50th MMM Student Presentation Winner
Clarina dela Cruzfor her presentation:⬙Evidence for strong spin-lattice coupling in multiferroic
RMn2 O5 共R⫽Tb,Dy,Ho兲 via thermal expansion anomalies.’’
CONGRATULATIONS!

Selection Process: A Poster Award Committee will review all of the posters at the beginning of each session. Nominations will be made by theindividual session chairs which will be forwarded to the Award Committee. Selections will be based on the level of the research, quality of theposter, and clarity of the presentation.
Best 50th MMM Conference Poster Presentation Winners
Claudiu Daniel Stanciu, A. Kimel, F. Hansteen, A. Tsukamoto, A. Itoh,
A.Kirilyuk, and T.Rasing
IMM, Radboud Univ. Nijmegen; Nijmegen, Netherlands
Temperature dependence of laser induced magnetization dynamics in a
GdFeCo film: the role of angular momentum compensation
Matthew Moneck and J. Zhu
Electrical and Computer Eng., Carnegie Mellon Univ. Pittsburgh, PA,USA
Fabrication and testing of deep submicron ring shape vertical MRAM withenhanced magnetoresistance
Sylvia Florez, C. Krafft, and R. D. Gomez
Electrical and Computer Eng., Univ. of Maryland, College Park, MD,
USA Effects of artificial domain wall traps in pulsed-current induced domain wall motion in a spin valve device
Zhi-pan Li, R. Morales, O. Petracic and I. K. Schuller
Physics Department, UC San Diego, La Jolla, CA, USA
Domain Size Relevance in Exchange Biased Nanostructures
Yosi Bason, L. Klein, C. H. Ahn, X. Hong, and J. T. Yau
Physics, Bar-Ilan Univ., Ramat Gan, Israel; Applied Physics, Yale Univ.,
New Haven CT, USA
Planar-Hall-Effect MRAM
R. R. Deshmukh, A.J. Moses, and F.J. Anayi
Engineering, Wolfson Centre for Magnetics Technology, Cardiff, Wales,UK
Behaviour of Three-Phase Inducting Motor with Variable in Stator CoilWinding Pitch
CONGRATULATIONS!

FUTURE CONFERENCES
52nd Conference on Magnetism and Magnetic Materials: November 5-9,
2007, Tampa, FL

BEST POSTER PRESENTATIONSThere is also a competition for the best poster in each poster session at theConference. These awards will be given to recognize excellence in research and presentation. There will be one award for each morning andeach afternoon session.

INTERMAG Conference: May 4-8, 2008, Madrid, Spain
53rd Conference on Magnetism and Magnetic Materials: November 10-14,
2008, Austin, TX
2010 Joint MMM/Intermag Conference: January 17-21, 2010, San Francisco, CA

ABSTRACTS

ADDITIONAL INFORMATION
If you would like to receive more information about the Joint Conference,
to be placed on the Conference Mailing List, or to update your mailingaddress, please contact Janis Bennett at: magnet@aip.org; Telephone: 516576-2403; Fax: 516-576-2223. The latest information on the Joint Conference can be found on the Web at the Conference homepage at: http://
www.magnetism.org.

SPECIAL FREE GMAG MEMBERSHIP OFFER
FOR STUDENTS
Student members of the APS may join the Topical Group on Magnetism
共GMAG兲 FREE for up to one year 共until their next APS renewal and then
$7 thereafter兲. Students who are not members of APS can also join APS
for no cost the first year. Membership forms are available at the APS
Membership Desk at the 2007 Joint Conference and on-line at http://
www.aps.org/memb/joinaps.cfm .

5

ELECTED MMM ADMINISTRATIVE COMMITTEEMEMBERS
Advisory Committee for the 10th Joint MMMÕIntermag Conference
Chairman . . . . . . . . . . . . . . . . . . . R. Victora
Secretary . . . . . . . . . . . . . . . . . . . . J. Childress
Executive Secretary/Treasurer . . . D. Melton
Term Expires February 2007: . . J. Borchers, R. Gomez, B. Gurney, V.
Harris, D. Jonker, Y-K. Kim, L. H.
Lewis, J. MacLaren, M. Pasquale, C.
Ross, W. Yelon
Term Expires December 2007: . . J. Childress, E. D. Dahlberg, J.
Fernandez-de-Castro, J. Fidler, C.
Gutierrez, F. Hellman, R. McMichael,
D. Reich, J. Rhyne, B. Terris
Term Expires December 2008: . . E. Cardelli, C.L. Chien, B. Hillebrands, Y. Idzerda, Y. Ijiri, R. Indeck, M. McHenry, H. Muraoka, K.
O’Grady, P. Schiffer

SPECIAL FREE IEEE MEMBERSHIP OFFER FOR
STUDENTS
If you are registered at the 2007 Joint MMM/Intermag Conference as aStudent attendee, at the Student rate, you can obtain a FREE membershipin the IEEE and the Magnetics Society by:• Completing and returning an IEEE student membership applicationform.
• Completed forms must be handed in at the IEEE Membership Deskat the Joint Conference to obtain this free Student Membership.
• This offer is only valid at the 2007 Joint MMM/Intermag Conference.
• Submissions sent/received after the final day of the Joint Conference
CANNOT be processed.
• This free student membership will run for the remainder of 2007.
• This free student membership is only available to students who are NOT
currently members of the IEEE and the Magnetics Society.
IEEE Membership forms are also available online
services1.ieee.org/membersvc/member/mags_intro.htm

athttp://IEEE MAGNETICS SOCIETY
President: . . . . . . . . . . . . . . . . . . . . Carl E. Patton
Vice President:. . . . . . . . . . . . . . . . Randall Victora
Past President: . . . . . . . . . . . . . . . . Kevin O’Grady
Executive Director: . . . . . . . . . . . Diane S. Melton

ELECTED IEEE MAGNETICS SOCIETY
ADMINISTRATIVE COMMITTEE MEMBERS
Terms Expiring December 31,
2006 . . . . . . . . . . . . . . . . . . . . . B. Dieny; R. Hasegawa; Y. Miura; D.
Jiles; T. Dong Lee; K. Ounadjela; J-U
Thiele; S. Ueno
Terms Expiring December 31,
2007 . . . . . . . . . . . . . . . . . . . . . J. Chapman; W. Doyle; L. Folks; B.
Hillebrands; H. Muraoka; M. PardaviHorvath; B. Terris; S. Wang
Terms Expiring December 31,
2008 . . . . . . . . . . . . . . . . . . . . G. Bertotti; J. Fidler; S. Majetich; M.
Pasquale; C. Ross; T. Suzuki; D.
Weller; R. Wood

Sponsoring Society Representatives
Physics Conferences Inc.. . . . . . . . M. BurkeIEEE Magnetics Society . . . . . . . . D. Lavers

CONFERENCE ORGANIZATION
Steering Committee 10th Joint MMM-Intermag
Conference
Chair . . . . . . . . . . . . . . . . . . . . . . . J. Borchers
Chairman Elect . . . . . . . . . . . . . . . D. Weller
Past Chair . . . . . . . . . . . . . . . . . . . R. Victora
Treasurer . . . . . . . . . . . . . . . . . . . . J. Childress
Program Co-Chairs . . . . . . . . . . . . O. Heinonen, P. Schiffer
Members . . . . . . . . . . . . . . . . . . . . N. Abarra, J. Akerman, T. Ambrose,
S. Araki, K. Barmak, J. Bass, V.
Chandrasekhar, Y. Chen, G. Choe,
S-H. Chung, K. Coffey, P. Crowell, J.
Deak, P. Dhagat, A. Enders, J.
Fernandez-de-Castro, P. Freitas, K.
Gao, V. Harris, A. Hebard, B. Higgins, R. Horowitz, D. Howe, Y. Idzerda, M. Jaime, A. Jander, S. Jiang, F.
Johnson, M. Johnson, A. Kikitsu, J.
Kikkawa, K. Klaassen, J. Lee, C.
Leighton, D. Leslie-Pelecky, K. Li, B.
Liu, K. Liu, B. Lu, W. Luo, J. Lynn,
S. Majetich, J. Mitchell, O. Mryasov,
M. McHenry, A. Nazarov, J. Nowak,
M. Pederson, A. Petford-Long, M.
Plumer, M. Pufall, N. Samarth, J.
Shield, H. Srikanth, S. Sun, K. Takano, K. Tang, O. Tchernyshyov, B.
Terris, J-U. Thiele, T. Thomson, M.
van Schilfgaarde, S. Wang, D. Weller,
M. Willard, D. Worledge, J. Xiao, Y.
Zhu, G. Zimanyi
Publications Co-chairs. . . . . . . . . . M. McHenry 共JAP兲, A. Hoffmann
共IEEE兲

6

ABSTRACTS

Publications Editors . . . . . . . . . . . N. Abarra, J. Akerman, K. Coffey,
M-C. Cyrille, H. Srikanth, F. Johnson,
M. O’Shea, S. Sun, T. Thomson, M.
Willard
Exhibits Chair . . . . . . . . . . . . . . . . L. H. Lewis
Exhibits Coordinator . . . . . . . . . . R. Kuryla
Industrial Support . . . . . . . . . . . . . L. H. Lewis
Student Support Coordinators . . . J. C. Eckert, M. Carey
IEEE Representative . . . . . . . . . . D. Lavers
PCI Representative . . . . . . . . . . . . M. Burke
Editor, J. Appl. Phys. . . . . . . . . . . J. Viccaro
Editor, IEEE Trans. Mag. . . . . . . R. Goldfarb
Conference Management . . . . . . . D. Melton, R. Kuryla, L. Seger, CourtesyAssociates
PCI Coordinator . . . . . . . . . . . . . . J. Bennett

ABSTRACTS

13

CONFERENCE PROGRAM
Sunday eve
7:00 p.m.

Tuesday
2:00 p.m.
XA Tutorial on spin torque

Harborside C

AA Symposium on spin manipulation insemiconductors and metals for
spintronics
AB Perpendicular recording: Writability
AC Colossal magnetoresistive oxides
AD Magnetic tunnel junctions I
AE Spin dynamics and relaxation I
AF L10 structures and related materials
AG Hysteresis modeling and thermal effects
AH Magneto-optic and magneto-caloric
materials

Harborside C

AP
AQ
AR
AS
AT
AU

Magnetoelectronic devices
Recording systems: Channel
Sensors and devices
Ultrathin films and surface effects I
Multilayer films and superlattices I
Double perovskites and magnetic
semiconductors
AV Magnetic tunnel junctions and spin
filtering
AW Spin torque: Microwave oscillations
AX Spin glasses, low-dimensional andstrongly correlated systems
AY Magnetic fluids and separation

Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom

BA

Harborside C

BH

Symposium on Bose Einsteincondensation and quantum magnets
Nanoparticle synthesis I
Exchange bias I
Spin transport in nanostructures
Numerical studies of domain walls
High frequency inductors
Instrumentation and measurement
techniques I
New applications I

3:45 p.m.

BX

PLENARY

Harborside

Tuesday
9:00 a.m.

CA

Symposium on magnetic MEMS
technologies
Head-disk interface and tribology I
Patterned structures I
Spin torque: Microwave oscillations
Spin injection in semiconductors andmetals I
Rare-earth magnets: Materials andprocessing
Critical phenomena: Superconductivity
Molecular magnetic materials

Harborside C

Monday9:00 a.m.

8:00 a.m.

Monday1:30 p.m.

BB
BC
BD
BE
BF
BG

CB
CC
CD
CE
CF
CG
CH

DA Symposium on recent advances inmodeling of magnetic and spin
dependent properties
DB Patterned media
DC Exchange bias III
DD Magnetic Tunnel Junctions 共MgO兲 III
DE Ultrathin films and surface effects II
DF Oxide magnetic semiconductors I
DG 4f,5f and strongly correlated systems
DH Magnetic sensors 共not magnetic
recording兲Harborside A
Harborside B
Harborside D
Harborside E
Essex
LaurelDover

Exchange bias II
Electronic structure I
Magnetic tunnel junctions II
Ferrites, garnets, particles, andcomposites
CT Hysteresis modeling and continuum
methods
CU Micromagnetics: Applications I
CV Micromagnetics: Fundamental aspects
CW High frequency materials and devices
CX Instrumentation and measurement
techniques II

Harborside A
Harborside B
Harborside D
Harborside E
Essex
LaurelDover

1:00 p.m.
DP Transformers and Inductors
DQ Magneto-optic recording and alternative
magnetic storage
DR Nanoparticle synthesis II
DS Nanoparticle arrays I
DT Half-metallic ferromagnets I
DU Magneto-caloric materials
DV Patterned structures II
DW Spin transport in spin valves andnanostructures
DX Magneto-optic and magneto-elastic
materials
DY Hard magnetic films
DZ Magnetization processes and magnetic
characterization
DAA Hard magnetic materials

Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom

Harborside A
Harborside B
Harborside D
Harborside E
Essex
LaurelGrand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom

Symposium on magnetic memories, pastand present

Harborside

EA

Symposium on interfaces in magnetic
tunnel junctions
Perpendicular media
III-V magnetic semiconductors
Spin torque: Domain walls
Multiferroics: Bulk materials and theory
Electronic Structure II
Recording modeling, systems and theory
Ferrites, garnets, and microwave
materials I

Harborside C

Wednesday
9:00 am

EB
EC
ED
EE
EF
EG
EH

Harborside A
Harborside B
Harborside D
Harborside E
Essex
LaurelDover

8:00 am
EP
EQ
ER
ES

Essex
LaurelDoverGrand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom

Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom

YA

Dover

Harborside A
Harborside B
Harborside D
Harborside E

Grand Ballroom
Grand Ballroom

Tuesday eve
7:30 p.m.

8:00 a.m.
CP
CQ
CR
CS

Harborside C

Superconductivity, Critical Phenomena
Exchange bias IV
Magnetic tunnel junctions IV
Spin injection in semiconductors andmetals II
ET Permanent magnet motors I
EU New applications II
EV Nanostructured films and patterned
media
EW Perpendicular and longitudinal recording
EX Head materials, soft magnetic alloys anddomains

Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom

FA

Harborside C

Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom

Wednesday
2:00 p.m.

FB

Symposium on Probing the Magnetic
Structure of Nanostructured Exchange
Magnetic memory and elements

Harborside A

14

ABSTRACTS
FC
FD
FE
FF
FG
FH

Patterned structures III
Spin torque: TunnelingMultilayer films and superlattices II
Drug delivery and separation
Magneto-elastic materials
Magnetic microscopy and imaging I

Harborside B
Harborside D
Harborside E
Essex
LaurelDover

Spin dynamics and relaxation II
Amorphous and nanocrystalline soft
materials I
FR Magnetoresistive oxides
FS Biomedical applications of magnetic
materials
FT Magnetic semiconductors
FU Motors I
FV Itinerant magnetism
FW Permanent magnet motors II
FX Recording media and system integration
FY Recording modeling and noiseGrand Ballroom
Grand Ballroom

GA Symposium on driven domain wall
dynamics in nanostructures
GB CPP-TMR & GMR read heads
GC Nanoparticle arrays II
GD Half-metallic ferromagnets II
GE Micromagnetics: Applications II
GF Magnetic biosensors
GG Giant magnetoimpedance
GH Amorphous and nanocrystalline soft
materials II

Harborside C

1:00 p.m.
FP
FQGrand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom

Thursday9:00 a.m.

Harborside A
Harborside B
Harborside D
Harborside E
Essex
LaurelDover

8:00 a.m.
GP
GQ
GR
GS
GT
GU
GV
GW

Spin dynamics and relaxation III
Oxide magnetic semiconductors II
Multiferroic oxides
Motors II
Controls, actuators, and linear motors
Magnetic microscopy and imaging II
Head-disk interface and tribology II
Ferrites, garnets, and microwave
materials II
GX New magnetic materials I

Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom
Grand Ballroom

HA
HB
HC
HD

Harborside C
Harborside A
Harborside B
Harborside D

Grand Ballroom

Thursday2:00 p.m.
Spin torque: Metallic systems
Multiferroics: Thin films and composites
Nanoparticle synthesis III
Head materials, soft magnetic films, anddomains
HE Low dimensional systems/Spin glasses
and frustration
HF Hyperthermia and magnetic fluids
HG Spin valves: Metallic and organic
HH New magnetic materials II

Harborside E
Essex
LaurelDover

ABSTRACTS

7

PROGRAM

SUNDAYEVENING
7:00

17

HARBORSIDE C

Session XA

TUTORIAL ON SPIN TORQUE
Carl Patton, Session Chair
7:00

XA-01. Spin Torque for Dummies: A Bare-Bones Introduction to theSpin Momentum Transfer Effect. (Invited) T. Silva11.
Magnetics Group, NIST, Boulder, CO, USA

7:36

XA-02. High-frequency phenomena induced by spin-torque. (Invited)
A. Slavin11. Physics, Oakland University, Rochester Hills, MI,
USA

8:12

XA-03. Spin torque switching. (Invited) P.B. Visscher11. Physics and
MINT Center, University of Alabama, Tuscaloosa, AL, USA

MONDAYMORNING
9:00

HARBORSIDE C

Session AA

SYMPOSIUM ON SPIN MANIPULATION IN
SEMICONDUCTORS AND METALS FORSPINTRONICS
Michael Flatté, Session Chair
9:00
AA-01. Manipulating Nanomagnets Using Spin-Transfer Torques.
(Invited) D. Ralph11. Physics Department, Cornell University,
Ithaca, NY, USA

9:36
AA-02. Spin Transport and Scattering in Magnetic Semiconductor
Heterostructures. (Invited) N. Samarth11. Physics, Penn State
University, University Park, PA, USA

18

PROGRAMPROGRAM

19

10:00

10:12
AA-03. Electrical Spin Detection in Semiconductors. (Invited) X. Lou ,C. Adelmann2, M. Furis3, D.L. Smith3, S.A. Crooker3,
C.J. Palmstrøm2 and P.A. Crowell11. Physics and Astronomy,
University of Minnesota, Minneapolis, MN, USA; 2. Chemical
Engineering and Materials Science, University of Minnesota,
Minneapolis, MN, USA; 3. National High Magnetic Field
Laboratory, Los Alamos National Laboratory, Los Alamos, NM,USA

AB-04. Switching of Finite-Sized Composite-Media. S. Mukherjee1 and
L. Berger21. Seagate Research, Pittsburgh, PA, USA; 2. Physics,
Carnegie Mellon University, Pittsburgh, PA, USA

10:48

10:24

AA-04. Generating Spin Currents in Semiconductors with the Spin
Hall Effect. (Invited) V. Sih1, W.H. Lau1, R.C. Myers1,
V.R. Horowitz1, A.C. Gossard1 and D.D. Awschalom11. Center for
Spintronics and Quantum Computation, University of California,
Santa Barbara, CA, USA

AB-06. Write Head Design for Exchange Coupled Composite Media.
X. Shen1 and R.H. Victora11. Electrical engineering, University of
Minnesota, Minneapolis, MN, USA

1

11:24
AA-05. Spin Hall effect in a diffusive conductor. (Invited)
S.O. Valenzuela11. Massachusetts Institute of Technology,
Cambridge, MA, USA

10:12
AB-05. Simulation of Perpendicular Recording with a VSM.
H.J. Richter1 and B.F. Valcu11. Seagate Technology, Fremont, CA,
USA

10:36
AB-07. Effect of Writability on Spectral Rolloff in Perpendicular
Recording. M. Xiao1, P. Van der Heijden1 and H. Rosen11. San
Jose Research Center, Hitachi Global Storage Technologies, San
Jose, CA, USA
10:48

MONDAYMORNING
9:00

HARBORSIDE A

AB-08. Writability Study of Perpendicular Exchange Spring Media.
N.F. Supper1, A. Berger1, D.T. Margulies1, M. Andreas1 andE.E. Fullerton11. Hitachi, San Jose Research Center, San jose,
CA, USA
11:00

Session AB

PERPENDICULAR RECORDING:WRITABILITY
Stephen Lee, Session Chair

AB-09. Writer Flux Closure and Transition Degradation Mechanism
in Perpendicular Recording. J. Fernandez-de-Castro1, X. Shen2,
J. Xue1 and Y. Zhou11. Seagate Technology, Bloomington, MN,
USA; 2. Dept. of Electrical & Computer Engineering, Universityof Minnesota, Minneapolis, MN, USA
11:12

9:00
AB-01. Novel Approaches Towards High Density CoCrPt-Oxide
Perpendicular Recording Media. (Invited) S. Piramanayagam1,
J. Shi1, S. Kumar1, R. Sbiaa1, C. Mah1, C. Ong1, J. Zhao1, Y. Kay1
and J. Zhang11. Data Storage Institute, Singapore, Singapore

9:36
AB-02. Design and Optimization of Soft and Hard Regions of
Exchange Coupled Composite Grains for future ECC Media.
W. Shen1, H. Zhao1 and J. Wang11. MINT, Department ofElectrical and Computer Engineering, University of Minnesota,
Minneapolis, MN, USA

AB-10. Perpendicular head structures to improve the corner erasurerobustness. M. Mochizuki1, T. Okada1, Y. Maruyama1, Y. Hsu2,
T. Hamaguchi1 and R. Wood21. Hitachi Global Storage
Technologies, Ltd., Odawara-shi, Kanagawa-ken, Japan; 2.
Hitachi Global Storage Technologies, Inc., San Jose, CA, USA
11:24
AB-11. Analysis of write mechanism of a perpendicular head using
the writer pole footprint technique. V. Nandakumar1,
O.G. Heinonen2 and A. Vanderschans31. Recording Subsystem
Organization, Seagate Technology, Bloomington, MN, USA; 2.
Recording Heads Organization, Seagate Technology,
Bloomington, MN, USA; 3. Seagate Technology, Bloomington,
MN, USA

9:48
AB-03. New Experimental Approach to Composite Media Design.
E. Girt1, A. Dobin1, B.F. Valcu1, H.J. Richter1, T.P. Nolan1 andX. Wu21. seagate technology, fremont, CA, USA; 2. seagate
technology, pittsburgh, PA, USA

11:36
AB-12. Experimental Study of Perpendicular Write Head Field Rise
Time. X. Xing1, A. Taratorin1 and K.B. Klaassen11. Hitachi
Research, San Jose, San Jose, CA, USA

20

PROGRAMPROGRAM

21

10:24

11:48
AB-13. Micromagnetics and eddy current effects in magnetic
recording heads. K. Takano1, X. Zhang1, E. Salhi1, L. Guan1,
M. Sakai1, J. Smyth1 and M. Dovek11. Bldg-3, Headway
Technologies, Milpitas, CA, USA

AC-06. Electric-pulse-induced resistance switching inmagnetoresistive manganite films grown by metalorganic
chemical vapor deposition. T. Nakamura1, K. Homma1 andK. Tachibana11. Department of Electronic Science andEngineering, Kyoto University, Kyoto, Japan
10:36

MONDAYMORNING
9:00

HARBORSIDE B

AC-07. Scanning tunneling spectroscopy on Pr0.68Pb0.32MnO3 single
crystals. S. Roessler1, S. Ernst1, B. Padmanabhan2, S. Elizabeth2,
H.L. Bhat2, S. Wirth1 and F. Steglich11. Physics, Max Planck
Institute for Chemical Physics of Solids, Dresden, Germany; 2.
Physics, Indian Institute of Science, Bangalore, India

Session AC

COLOSSAL MAGNETORESISTIVE OXIDES

10:48

Samuel Bader, Session Chair

AC-08. Investigation of local magnetism at M sites in RMO3
(R=La,Nd;M=Cr,Fe) antiferromagnetic perovskite oxides.
F.M. Cavalcante1, A.C. Junqueira1, D.T. Leite1, R.N. Saxena1,
J. Mestnik-Filho1 and A.W. Carbonari11. CRPq, IPEN-CNEN/SP,
Sao Paulo, Sao Paulo, Brazil

9:00
AC-01. Nodal quasiparticle in pseudogapped colossal
magnetoresistive manganites. (Invited) N. Mannella11. Physics,
Stanford University, Palo Alto, CA, USA
9:36
AC-02. Charge, spin, orbital and lattice degrees of freedom inmanganites. P.U. Schlottmann11. Department of Physics, Florida
State University, Tallahassee, FL, USA

11:00
AC-09. Magnetic correlations and spin dynamics in crystalline La1xCaxMnO3 (x = 0, 0.1, 0.2, 0.3): Analysis of basic EPRparameters. M. Auslender1, A.I. Shames2, E. Rozenberg2,
G. Gorodetsky2 and Y.M. Mukovskii31. Electrical and Computer
Engineering, Ben-Gurion University, Beer Sheva, Israel; 2.
Physics, BGU of the Negev, Beer-Sheva, Israel; 3. Moscow Steeland Alloys Institute, Moscow, Russian Federation

9:48
AC-03. Extraordinary anisotropic magnetoresistance in manganite
single crystals. R. Li1, H. Wang2, K. Miki2 and B. Shen31.
International Center for Young Scientists, National Institute forMaterials Science, Ibaraki, Japan; 2. National Institute forMaterials Science, Tsukuba, Japan; 3. Institute of Physics,
Chinese Academy of Sciences, Beijing, China
10:00

11:12
AC-10. Lattice distortions, ferromagnetic clusters and phaseseparation in La1-xPbxMnO3: ESR study. T. Phan1, R. Vincent1,
M. Phan2, S. Yu3 and N. Chau41. Department of Physics,
University of Bristol, Bristol, United Kingdom; 2. Department of
Aerospace Engineering, University of Bristol, Bristol, United
Kingdom; 3. Department of Physics, Chungbuk National
University, Cheongju, South Korea; 4. Center for Materials
Science, University of Science, Hanoi, Viet Nam

AC-04. Ultrafast Hot Electron Dynamics in Manganites.
S.M. Thompson1, P.R. Abernethy1, J.R. Wells2, G.A. Gehring2,
J.R. Neal2, H.J. Blythe2, A.M. Fox2, P.J. Phillips3, N.Q. Vinh3,
D.A. Carder3 and P.J. Wright41. Physics, University of York, York,
United Kingdom; 2. Physics and Astronomy, University of
Sheffield, Sheffield, United Kingdom; 3. FELIX Free Electron
Laser Facility, FOM - Institute for Plasma Physics ‘Rijnhuizen’,
Nieuwegein, Netherlands; 4. Micro Nanotechnology Labs,
QinetiQ, Malvern, United Kingdom

AC-11. Electronic phase separation and the CMR effect in Pr1xCaxMnO3 films on (001) vicinal SrTiO3 substrates.
P. Moschkau1, S. Schramm1, J. Hoffmann1, J. Fladerer1,
C. Jooss1,2, L. Wu2, R. Klie2 and Y. Zhu21. Institute of Materials
Physics, University of Goettingen, Goettingen, Germany; 2.
Brookhaven National Laboratory, Upton, NY, USA

10:12

11:36

AC-05. A temperature dependent Magnetic Force Microscopy (MFM)
study of the effect of strain on the magnetism ofLa(0.7)Sr(0.3)MnO3 films. R.K. Kummamuru1, Y. Soh1,
L.E. Hueso2 and N.D. Mathur21. Department of Physics andAstronomy, Dartmouth College, Hanover, NH, USA; 2.
Department of Materials Science and Metallurgy, University ofCambridge, Cambridge, CB2 3QZ, United KingdomAC-12. Study of magnetic phase coexistence in Manganites by
Exchange-Bias. M. Cerro1,2, F. Garcia1, H. Westfahl Jr.1,
A.M. Gomes3 and L. Ghivelder31. Laboratório Nacional de Luz
Síncrotron, Campinas, São Paulo, Brazil; 2. Instituto de Física
“Gleb Wataghin”, Universidade Estadual de Campinas,
Campinas, São Paulo, Brazil; 3. Instituto de Física, Universidade
Federal do Rio de Janeiro, Rio de Janeiro, Brazil

11:24

22

PROGRAMPROGRAM

23

11:48

10:12

AC-13. Spin-polarized grain-boundary transport in reversibly
strained La0.7( Sr, Ca)0.3MnO3 polycrystalline films.
R. Gangineni1, K. Dörr1, N. Konstantin1 and S. Ludwig11.
Institute of metallic materials, Leibniz Institute for Solid State andMaterials Research Dresden, Dresden, Saxony, Germany

AD-07. Tunnel magnetoresistance reversal in interface engineered(La,Sr)MnO3/SrTiO3/Co magnetic tunnel junctions. I.J. Vera
Marún1 and R. Jansen11. MESA+ Institute for Nanotechnology,
University of Twente, Enschede, Netherlands

10:24

MONDAYMORNING
9:00

HARBORSIDE D

Session AD

AD-08. TUNNELING MAGNETORESISTANCE AND ELECTRONCURRENT IN LOW-BARRIER MAGNETIC TUNNELING
JUNCTIONS. N.N. Beletskii1,2, G.P. Berman2, S.A. Borysenko1,
S.A. Wolf3 and V.M. Yakovenko11. Usikov Institute ofRadiophysics and Electronics, Kharkov, Ukraine; 2. Theoretical
Division, MS B213, Los Alamos National Laboratory, Los
Alamos, NM, USA; 3. Department of Physics and Material
Science, University of Virginia, Charlottesville, VA, USA

MAGNETIC TUNNEL JUNCTIONS I
Alex Nazarov, Session Chair
9:00
AD-01. Competing spin dependent transport mechanisms in low
resistance underoxidized magnetic tunnel junctions.
J. Ventura1, R. Ferreira2, J. Teixeira1, J.P. Araujo1, Y. Pogorelov1,
J.B. Sousa1 and P.P. Freitas21. IFIMUP, Porto, Portugal; 2.
INESC-MN, Lisbon, Portugal
9:12
AD-02. Magnetization dynamics in toggle magnetic tunnel junctions.
V. Korenivski1,2 and D.C. Worledge11. IBM T.J. Watson ResearchCenter, Yorktown Heights, NY, USA; 2. Nanostructure Physics,
Royal Institute of Technology, Stockholm, Sweden

10:36
AD-09. Giant TMR over 100% at room temperature for junctions
using epitaxial full-Heusler Co2FeAl0.5Si0.5 electrodes.
N. Tezuka1,2, N. Ikeda1, S. Sugimoto1 and K. Inomata2,31. Tohoku
University, Sendai, Japan; 2. CREST-JST, Kawaguchi, Japan; 3.
NIMS, Tsukuba, Japan

10:48
AD-10. Inelastic electron tunneling spectroscopy for MTJ heads.
T. Ken1, J. Murai2, M. Oogane3, T. Miyazaki3, T. Tanaka1,
Y. Uehara2 and T. Uzumaki11. Fujitsu Laboratories Ltd., Atsugi,
Japan; 2. Fujitsu Ltd., Nagano, Japan; 3. Tohoku Univ., Sendai,
Japan

11:00
9:24
AD-03. Influence of pinned-layer dispersion on magnetic tunnel
junction switching distributions. J.G. Deak11. Advanced
Technology, NVE Corporation, Eden Prairie, MN, USA
9:36
AD-04. High Spin Stiffness for bcc Co. S.J. Oset1,2 and W.H. Butler21.
Physics, University of South Alabama, Mobile, AL, USA; 2. MINT
Center, University of Alabama, Tuscaloosa, AL, USA
9:48
AD-05. Near infinite magnetoresistance realized in a F/I/S/I/F
superconducting tunnel structure. G. Miao1, T.S. Santos1 andJ.S. Moodera11. Francis Bitter Magnetic Laboratory, MIT,
Cambridge, MA, USA
10:00
AD-06. Tunneling spectroscopy of magnetic double barrier junctions.
A. Iovan1, K. Lam1, S. Andersson1, D.B. Haviland1 andV. Korenivski11. Nanostructure Physics, Royal Institute ofTechnology, Stockholm, Sweden

AD-11. Influence of Magnetic Barrier Layer on Epitaxial Oxide
Magnetic Tunnel Junctions. B.B. Nelson-Cheeseman1,
R. Chopdekar2,1, L. Alldredge2,1 and Y. Suzuki11. Materials
Science and Engineering, University of California - Berkeley,
Berkeley, CA, USA; 2. Applied Physics, Cornell University,
Ithaca, NY, USA

11:12
AD-12. Influence of disorder on tunnel magnetoresistance.
V.M. Karpan1, P.X. Xu2, K. Xia2, I. Marushchenko1,
M. Zwierzycki3 and P.J. Kelly11. University of Twente, Enschede,
Netherlands; 2. State Key Laboratory for Surface Physics,
Beijing, China; 3. Max-Planck-Institut für Festkörperforschung,
Stuttgart, Germany

11:24
AD-13. Tuning Magnetic Microstructures of Reference Layer ofMagnetic Tunneling Junctions. L. Yuan1, Y.S. Lin1, D. Wang2and S.H. Liou11. Department of Physics & Astronomy and
Nebraska Center for Materials and Nanoscience, University of
Nebraska-Lincoln, Lincoln, NE, USA; 2. Seagate Technology,
Bloomington, MN, USA

24

PROGRAMPROGRAM

25

11:36

9:24

AD-14. Magnetotransport and Soft X-Ray Magnetic Circular
Dichroism in Magnetite Tunnel Junctions with Chromite
Barrier Layers. R.V. Chopdekar1,2, M. Liberati3, Y. Takamura2,
B.B. Nelson-Cheeseman2, E. Arenholz3, A. Doran3, A. Scholl3,
L. Fitting1, D.A. Muller1 and Y. Suzuki21. Applied Physics,
Cornell University, Ithaca, NY, USA; 2. Materials Science andEngineering, UC Berkeley, Berkeley, CA, USA; 3. Advanced Light
Source, Lawrence Berkeley National Laboratory, Berkeley, CA,USA

AE-03. Spin and Orbital Moment Dynamics of Fe/Gd Multilayers
Studied Using an X-Ray Streak Camera. A. Comin1,
A.F. Bartelt1, J. Feng1, H. Shin1,4, J.R. Nasiatka1, T. Eimüller2,
B. Ludescher3, G. Schütz3, J. Schmalhorst5, H.A. Padmore1,
A.T. Young1 and A. Scholl11. Lawrence Berkeley National
Laboratory, Berkeley, CA, USA; 2. Institut für Experimentalphysik
IV, Ruhr-Universität Bochum, Bochum, Germany; 3. Max-PlanckInstitut für Metallforschung, Stuttgart, Germany; 4. Departmentof Physics, Pohang University of Science and Technology,
Pohang, South Korea; 5. Department of Physics, University ofBielefeld, Bielefeld, Germany

11:48
AD-15. Investigation of Co2FeSi full-Heusler alloy: structure, spinpolarization and TMR effect. Z. Gercsi1, A. Rajanikanth2,1,
Y.K. Takahashi1, K. Hono1,2, M. Kikuchi3, N. Tezuka4 andK. Inomata1,41. Magnetic Materials Center, National Institute forMaterials Science, Tsukuba, Japan; 2. Graduate School of Pureand Applied Sciences, University of Tsukuba, Tsukuba, Japan; 3.
Kojundo Chemical Laboratory Co. Ltd, Chiyoda, Japan; 4.
Department of Materials Science, Graduate School ofEngineering, Tohoku University, Chiyoda, Japan

MONDAYMORNING
9:00

HARBORSIDE E

Session AE

9:36
AE-04. Ultrafast optomagnetic switching and coherent control ofmagnetization. (Invited) F. Hansteen1, C. Stanciu1, A.V. Kimel1,
A. Kirilyuk1 and T. Rasing11. Radboud University, Nijmegen,
Netherlands
10:12
AE-05. SPATIO-TEMPORAL INDUCTIVE PROBE IMAGING OF
SPIN WAVE PROPAGATION IN NON-UNIFORMMAGNETIC FIELDS. M.J. Kabatek1, M. Wu1, K.R. Smith1 andC.E. Patton11. Physics, Colorado State University, Fort Collins,
CO, USA
10:24
AE-06. Spin waves in highly damped NiFe: Crossover tounderdamped dynamics with increasing wave vector.
M. Covington1 and T. Ambrose11. Seagate Research, Pittsburgh,
PA, USA

SPIN DYNAMICS AND RELAXATION I
William Bailey, Session Chair

10:36

9:00

AE-07. Time- and frequency-resolved magneto-optics for thequantitative determination of homogeneity for magnetization
dynamics at the nanometer scale. T. Silva1, M. Schneider1,J. Shaw1 and T. Gerrits11. NIST, Boulder, CO, USA

AE-01. Transient magnetic field induced dynamic coupling inpatterned magnetic bilayers. X. Zhu1, V. Metlushko3, Z. Liu2 and
M.R. Freeman21. Seagate Research Center, Seagate Technology,
Pittsburgh, PA, USA; 2. Department of Physics, University ofAlberta, Edmonton, AB, Canada; 3. Department of Electric andComputer Engineering, University of Illinois at Chicago,
Chicago, IL, USA

9:12
AE-02. Size (aspect ratio) dependent damping of precessional
dynamics in individual single domain nanomagnets.
A. Barman1,4, S. Wang1, J. Maas2, A.R. Hawkins2, S. Kwon3,5 and
H. Schmidt11. School of Engineering, University of California
Santa Cruz, Santa Cruz, CA, USA; 2. ECEn, Department,
Brigham Young University, Provo, UT, USA; 3. MolecularFoundry, Lawrence Berkeley National Laboratory, Berkeley, CA,
USA; 4. NanoCenter and Physics and Astronomy, University ofSouth Carolina, Columbia, SC, USA; 5. School of ElectricalEngineering, Seoul National University, Seoul, South Korea

10:48
AE-08. Basic origin of ferromagnetic resonance linewidth in Fe-Ti-N
thin films. S.S. Kalarickal1,2, P. Krivosik1,3, J. Das1, K. Kim1 andC.E. Patton11. Department of Physics, Colorado State University,
Fort Collins, CO, CO, USA; 2. Institut für Experimentalphysik,
Freie Universität, Arnimallee, D-14195, Berlin, Germany; 3.
Slovak University of Technology, Bratislava, Slovakia
11:00
AE-09. Dynamic Depinning of Magnetic Vortices. R.L. Compton1 and
P.A. Crowell11. University of Minnesota, Minneapolis, MN, USA
11:12
AE-10. Theory of ultrafast light-induced demagnetization in sp-d
model. L. Cywinski1 and L.J. Sham11. Department of Physics,
University of California, San Diego, La Jolla, CA, USA

26

PROGRAMPROGRAM

27

11:24

10:00

AE-11. Element- and Layer-Resolved Magnetization Dynamics at
Picosecond Resolution. (Invited) D. Arena1, E. Vescovo1,
C. Kao1, Y. Guan2, L. Cheng2 and W.E. Bailey21. National
Synchrotron Light Source, Brookhaven National Lab, Upton, NY,
USA; 2. Materials Science Program, Dept. of Applied Physics,
Columbia University, New York, NY, USA

AF-06. FePt Films Fabricated by Electro-deposition. S. Thongmee1,
J. Ding1, J. Lin2, D. Blackwood1 and J. Yin11. Materials Scienceand Engineering, National University of Singapore, Singapore,
Singapore; 2. Physics, National University of Singapore,
Singapore, Singapore
10:12

MONDAYMORNING
9:00

ESSEX

AF-07. L10 Fe-Pd by electrochemical deposition post-deposition
annealing. F.M. Takata2,1, G. Pattanaik1, W.A. Soffa1,
P.A. Sumodjo3 and G. Zangari11. University of Virginia,
Charlottesville, VA, USA; 2. Instituto Tecnológico de Aeronáutica,
São José dos Campos, São Paulo, Brazil; 3. Universidade de São
Paulo, São Paulo, São Paulo, Brazil

Session AF

L1O STRUCTURES AND RELATEDMATERIALS
Timothy Klemmer, Session Chair
9:00
AF-01. In Situ Magnetic Orientation Controlled Deposition of L10
FePt Nanoparticles. J. Qiu1, J. Bai1 and J. Wang11. Electrical andComputer Engineering, University of Minnesota, Minneapolis,
MN, USA
9:12
AF-02. Curie Temperatures of Annealed FePt Nanoparticle Systems.
C. Rong1, Y. Li1 and J. Liu11. Department of Physics, University ofTexas at Arlington, Arlington, TX, USA

10:24
AF-08. Fine tuning of coercivity in electrodeposited, Co-rich Co-Pt
alloy films with perpendicular orientation. X. Xu1,3,
G. Pattanaik2,3, J. Weston4 and G. Zangari2,31. Chemical
Engineering, Univ. Virginia, Charlottesville, VA, USA; 2.
Materials Science and Engineering, Univ. Virginia,
Charlottesville, VA, USA; 3. Cenger for Electrochemical Scienceand Engineering, Univ. Virginia, Charlottesville, VA, USA; 4.
MINT Center, Univ. Alabama, Tuscaloosa, AL, USA
10:36
AF-09. Influence of quenching rate on the microstructure andmagnetic properties of melt-spun L10-FePt/Fe2B
nanocomposite magnets. W. Zhang1, K. Yubuta1, P. Sharma2,
A. Inoue1 and A. Makino11. Institute for Materials Research,
Tohoku University, Sendai, Japan; 2. Japan Science andTechnology Agency, Sendai, Japan

9:24
AF-03. Effect of capped layer on the microstructure and magnetic
properties of FePt films. S. Chen1,3 and P. Kuo2,31. Department ofMaterials Engineering, MingChi University of Technology, Taipei,
Taiwan; 2. Institute of Materials Science and Engineering,
National Taiwan University, Taipei, Taiwan; 3. Center for
Nanostorage Research, National Taiwan University, Taipei,
Taiwan

10:48
AF-10. Coercivity enhancement of melt spun FePt ribbons by Au
addition. C. Chang1, H. Chang2, C. Chiu1, W. Chang1 andY.D. Yao21. Physics, National Chung Cheng UniversityPhysics,
Chia-Yi, Taiwan; 2. Institute of Physics, Academia Sinica, Taipei,
Taiwan; 3. National Chung Cheng University, Chia-Yi, Taiwan; 4.
National Chung Cheng University, Chia-Yi, Taiwan; 5. Institute ofPhysics, Academia Sinica, Taipei, Taiwan

9:36
AF-04. Pre-annealing of CoPt disorder phase effect on orderingtransformation. W.M. Liao1, S.N. Hsiao1, S.K. Chen1, F. Yuan2,
H.W. Chang2 and Y.D. Yao21. Materials Science and Engeering,
Feng Chia University, Taichung, Taiwan; 2. Physics, Acdemia
Sinica, taipei, Taiwan
9:48
AF-05. Effect of Cu doping on the magnetic properties of CoPt
nanowires. J. Min1, B. An1, J. Cho1, H. Ji1, S. No1, Y. Kim1,
H. Liu2, J. Wu3, Y. Ko4 and J. Chung41. Materials Science andEngineering, Korea University, Seoul, South Korea; 2. Institutefor Nano Science, Korea University, Seoul, South Korea; 3.
Research Institute of Engineering and Technology, Korea
University, Seoul, South Korea; 4. AMCRCD and Department of
Physics, Soongsil University, Seoul, South Korea

11:00
AF-11. Preparation of Fe-Pt-Si amorphous ribbons and theircoercivity after heat treatment. T. Yamamoto1, A. Omori1,
A. Makino1, A. Inoue1 and Y. Hirotsu21. Institute for Materials
Research, Tohoku University, Sendai, Miyagi, Japan; 2. The
Institute of Scientific and Industrial Research, Osaka University,
Ibaraki, Osaka, Japan
11:12
AF-12. Bulk FePt/Fe3Pt nanocomposite magnets prepared by spark
plasma sintering. C. Rong1, V. Nandwana1, N. Poudyal1, J. Liu1
and T. Saito21. Department of Physics, University of Texas at
Arlington, Arlington, TX, USA; 2. Department of Mechanical
Science and Engineering, Chiba Institute of Technology, Chiba,
Japan

28

PROGRAMPROGRAM

11:24

10:00

AF-13. Mechanism of magnetic anisotropy in hcp Co3Pt alloy: density
functional theory calculations for 2x2x1 concentration waves.
O.N. Mryasov11. Seagate Research, Seagate Technology LLC,
Pittsburgh, PA, USA

AG-06. SIZE EFFECTS AND KINETIC BEHAVIOUR OF ARANDOM ANISOTROPY ISING SYSTEM. C. Enachescu1
and A. Stancu11. Department of Solid State and Theoretical
Physics, Alexandru Ioan Cuza University, Iasi, Romania

29

10:12

MONDAYMORNING
9:00

LAUREL

AG-07. Estimation of exchange bias distribution in all-ferromagnetic
bilayers. O. Hovorka1 and G. Friedman11. Electrical andComputer Engineering, Drexel University, Philadelphia, PA, USA

10:24

Session AG

HYSTERESIS MODELING AND THERMALEFFECTS
Gergely Zimanyi, Session Chair

9:00
AG-01. Mapping the Temperature Dependence of the Metastable
State Excitation Barriers in a Ferromagnetic Perovskite.
R.M. Roshko1 and C.A. Viddal11. Physics and Astronomy,
University of Manitoba, Winnipeg, MB, Canada

AG-08. Coherence Resonance in Stochastically Driven Hysteretic
Systems. M. Dimian1 and I. Mayergoyz21. Max Planck Institutefor Mathematics in the Sciences, Leipzig, Germany; 2. Electricaland Computer Engineering, University of Maryland, College
Park, MD, USA

10:36
AG-09. Nonlinear dynamics of the vortex core in magnetic dots.
M. Beleggia1, L. Huang1, M.A. Schofield1 and Y. Zhu11. Center
for Functional Nanomaterials, Brookhaven National Laboratory,
Upton, NY, USA

9:12

10:48

AG-02. NUMERICAL EVALUATION OF ENERGY BARRIERS IN
NANO-SIZED MAGNETIC ELEMENTS. O. ChubykaloFesenko1, E. Paz1 and F. Garcia-Sanchez11. Material Science
Institute of Madrid, Madrid, Spain

AG-10. Critical Fields for Magnetization Switching of PerpendicularMedia in the Presence of Spin Polarized Current.
M. Dimian11. Max Planck Institute for Mathematics in the
Sciences, Leipzig, Germany

9:24

11:00

AG-03. Magnetic anisotropy energy of FePt nanoparticles: free energy
barrier for thermally activated switching. C. Zhou1,
T.C. Schulthess1 and O.N. Mryasov21. Center for Nanophase
Materials Science, Oak Ridge National Laboratory, Oak Ridge,
TN, USA; 2. Seagate Research, Pittsburgh, PA, USA

AG-11. Effective Demagnetizing Factors of Complicated Particle
Mixtures. R. Skomski11. Department of Physics and Astronomy
and Nebraska Center for Materials and Nanoscience, Universityof Nebraska, Lincoln, NE, USA

11:12
9:36
AG-04. Implementation of the Preisach-Stoner-Wohlfarth model.
G.R. Kahler1, E. Della Torre1 and E. Cardelli21. Institute for
Magnetics Research, George Washington University, Ashburn, VA,
USA; 2. University of Perugia, Perugia, Italy

AG-12. Proposal For A Demagnetization Function. F. Thiel1,
A. Schnabel1, S. Knappe-Grüneberg1, D. Stollfuss1 and
M. Burghoff11. AG 8.2 Biosignals, Physikalisch-TechnischeBundesanstalt, Berlin, Germany

11:24
9:48
AG-05. Hysteretic memory effects in disordered magnets.
H.G. Katzgraber1 and G.T. Zimanyi21. Theoretische Physik, ETH
Zurich, Zurich, Switzerland; 2. Physics Department, University ofCalifornia Davis, Davis, CA, USA

AG-13. The effect of interlayer interaction and magnetic anisotropy
on the magnetization relaxation in coupled magnetic layers.
H. Kachkachi1 and M. Dimian21. Universitè de Versailles St.
Quentin, Versailles, France; 2. Max Planck Institute forMathematics in the Sciences, Leipzig, Germany

30

PROGRAMMONDAYMORNING
9:00

PROGRAM

DOVER

Session AH

MAGNETO-OPTIC AND MAGNETO-CALORIC
MATERIALS
Stefan Maat, Session Chair

31

10:00
AH-06. IS THE FIRST-ORDER MO EFFECT REALLYPROPORTIONAL TO THE MAGNETIZATION? M. Guillot1,
Z. Fang2, X. You3, Y. Jie Hui4 and W. Xing51. High Magnetic
Field Laboratory, CNRS/MPI, GRENOBLE cedex 9, France; 2.
Physics department, Teacher’s College, Qingdao University,
Qingdao, China; 3. China Center for Advanced Science andTechnology Beijing, Nanjing University, Nanjing 210093, China;
4. Department of Physics, Luoyang Teacher’s College, Louyang
471022, China; 5. National High Magnetic Field Laboratory,Thallahassee, FL, USA

9:00
AH-01. Surface plasmon resonance effects in the Magneto Opticalactivity of noble metal-ferromagnet ultrathin films.
A. Cebollada1,2, J. González-Díaz1, A. García-Martín1,
G. Armelles1, J. García-Martín1, C. Clavero1, R. Clarke2,
D. Kumah2, R. Lukaszew3 and J. Skuza31. Instituto deMicroelectrónica de Madrid, Tres Cantos, Spain; 2. University ofMichigan, Ann Arbor, MI, USA; 3. University of Toledo, Toledo,
OH, USA

9:12
AH-02. Optimization of magneto-optical response of FeF2/Fe/FeF2
sandwiches for microwave field detection. R. Lopusnik1,
E. Liskova2, J. Correau1, M. Veis2, I. Harward1, S. Widuch1,3,
P. Maslankiewicz1,3, S. Demirtas1, Z. Celinski1 and
S. Visnovsky21. Center for Magnetism and Magnetic
Nanostructures, University of Colorado at Colorado Springs,
Colorado Springs, CO, USA; 2. Institute of Physics, Charles
University, Prague, Czech Republic; 3. Department of Solid State
Physics, August Chelkowski Institute of Physics, University ofSilesia, Katowice, Poland

9:24
AH-03. Mixed-Cation Designs of Magnetic Perovskites for Faraday
Rotation at IR Wavelengths. G.F. Dionne1,2, A.R. Taussig2,
M. Bolduc2 and C.A. Ross21. Lincoln Laboratory, MIT,
Lexington, MA, USA; 2. Department of Materials Science andEngineering, MIT, Cambridge, MA, USA

10:12
AH-07. Properties of Microstructure on Amorphous Film of Rare
Earth-Transition Metal Alloy for Ultra-High Density
Recording. M. Murakami11. AV Core Technology Development
Center, Matsushita Electric Industrial Co., Ltd., Kadoma, Osaka,
Japan
10:24
AH-08. Magnetooptical Effect in Room-Temperature-Deposited
Cobalt/Lead Zirconate Titanate (PZT) Nanocomposite Thick
Films by Aerosol Deposition Method. J. Park1 and J. Akedo11.
National Institute of Advanced Industrial Science and Technology(AIST), Tsukuba, Japan
10:36
AH-09. Role of Ge in bridging ferromagnetism in giant
magnetocaloric Gd5(Ge1-xSix)4 D. Haskel1, Y. Lee2,
B.N. Harmon2, Z. Islam1, J.C. Lang1, G. Srajer1, Y. Mudryk3,
K.A. Gschneidner Jr.3 and V.K. Pecharsky31. Advanced Photon
Source, Argonne National Laboratory, Argonne, IL, USA; 2. Ames
Laboratory, Iowa State University, Ames, IA, USA; 3. Ames
Laboratory and Department of Materials Science andEngineering, Iowa State University, Ames, IA, USA
10:48
AH-10. Magnetocaloric effect in soft magnetic amorphous alloys.
V. Franco1, J.S. Blazquez1, M. Millan1, J.M. Borrego1,
C.F. Conde1 and A. Conde11. Department of Condensed Matter
Physics, Sevilla University, Sevilla, Spain

9:36
11:00
AH-04. Magnetic Anisotropies in (210)-oriented Bismuth-substituted
Iron Garnet Thin Films. I. Nistor1, C. Holthaus1, S. Tkachuk1,
C. Krafft2 and I.D. Mayergoyz1,31. Electrical and Computer
Engineering, University of Maryland, College Park, MD, USA; 2.
Laboratory for Physical Sciences, College Park, MD, USA; 3.
UMIACS, University of Maryland, College Park, MD, USA

AH-11. Magneto-Caloric Effect and Microstructural Studies in Gd11
1x(Si0.5Ge0.5)x Alloys. M. Manivel Raja , D.M. Rajkumar ,1
1
R. Gopalan , R. Balamuralikrishnan and V. Chandrasekharan11.
Defence Metallurgical Research Laboratory, Hyderabad - 500
058, Andhra Pradesh, India
11:12

9:48
AH-05. Room-temperature photo-induced magnetization biasing
hysteresis loop in ferrite for a long time. E.Z. Katsnelson1 and
M.M. Chervinskii21. Physics & Astronomy, Northwestern
University, Evanston, IL, USA; 2. Electromagnetic Measurement,
D.I. Mendeleev Institute for Metrology, S. Peterburg, RussianFederation

AH-12. Ferromagnetism induced by hydrogen insertion into
antiferromagnetic Gd5Ge4 compound. A.M. Carvalho1,
C.S. Alves2, C.C. Colucci2, F.F. Gonçalves2, D.L. Rocco1,
A.A. Coelho1 and S. Gama11. Applied Physics, Universidade
Estadual de Campinas, Campinas, São Paulo, Brazil; 2.
Mechanical Engineering, Universidade Estadual de Maringá,
Maringá, Paraná, Brazil

32

PROGRAMPROGRAM

11:24

AP-05. A paramagnetic solid-state MASER driven by spin injection.
S.M. Watts1 and B.J. van Wees11. Department of Applied Physics
and Materials Science Center, University of Groningen,
Groningen, Netherlands

AH-13. Investigation on magneto-structural transformation in NiMn-Ga Heusler alloy for magneto-caloric applications.
B.D. Ingale1,2, R. Gopalan1, M. Manivel Raja1, S. Ram2 andV. Chandrasekaran11. Advanced Magnetics Group, Defence
Metallurgical Research Laboratory, Hyderabad - 500 058,
Andhra Pradesh, India; 2. Materials Science Centre, Indian
Institute of Technology, Kharagpur - 721 302, West Bengal, India
11:36
AH-14. Heat capacity and magnetocaloric effects in polycrystalline
Gd1-xSmxMn2Si2 compounds. P. Kumar1, N.K. Singh1,
K.G. Suresh1, A.K. Nigam2 and S.K. Malik21. Physics, Indian
Institute of Technology, Mumbai, Maharastra, India; 2. Tata
Institute of Fundamental Research, Mumbai, Maharastra, India
11:48
AH-15. Negative and positive magnetocaloric effect in Ni-Mn-Sn.
L. Giudici1,3, C.P. Sasso1, M. Pasquale1, T. Lograsso2 and
D. Schlagel21. Materiali, Istituto Nazionale di Ricerca
Metrologica, Torino, Italy; 2. 111 Metals Development, Materialand Engineering Physics, Ames Laboratory, Ames, IA, USA; 3.
Fisica, Politecnico di Torino, Torino, Italy

MONDAYMORNING
8:00

GRAND BALLROOM

Session AP

MAGNETOELECTRONIC DEVICES(POSTER SESSION)
Bernard Dieny, Session Chair
AP-01. A Novel Spin Torque Driven Microwave Oscillator Design with
Extensive Frequency Tunability. X. Zhu1 and J. Zhu11. Electricaland Computer Engineering, Carnegie Mellon Univ., Pittsburgh,
PA, USA
AP-02. Bipolar spin switcher using Aharnov-Bohm ring withembedded double quantum dots. K. Chen1, M. Liu1, S. Chen1
and C. Chang11. Department of Physics, National Taiwan
University, Taipei, Taiwan
AP-03. Rashba spin interferometer. M. Liu1, S. Chen1, K. Chen1 and
C. Chang11. Department of Physics, National Taiwan University,
Taipei, Taiwan
AP-04. Magnetoresistance in Spin-Polarized Transport through a
Carbon Nanotube. T. Kim1, C. Lee1 and B. Lee21. School ofPhysics, Seoul National University, Seoul, South Korea; 2.
Department of Physics, Inha University, Incheon, South Korea

33

AP-06. Magnetic Content Addressable Memory. W. Wang1 andZ. Jiang11. Electrical Engineering, University of Wisconsin Milwaukee, Milwaukee, WI, USA
AP-07. Ferromagnetic Resonance Based Three-dimensional Magnetic
Random Access Memory for areal densities above 10 Terabitper-square-inch. S. Khizroev1,2, N. Amos2, R. Ikkawi2,
R. Chomko1,2 and D. Litvinov31. Electrical Engineering,
University of California, Riverside, Riverside, CA, USA; 2. Center
for Nanoscale Magnetic Devices, Florida International
University, Miami, FL, USA; 3. Electrical and Computer
Engineering, University of Houston, Houston, TX, USA
AP-08. Four-state magnetoresistance in epitaxial CoFe-basedmagnetic tunnel junction. T. Uemura1, T. Marukame1,
K. Matsuda1 and M. Yamamoto11. Division of Electronics for
Informatics, Hokkaido University, Sapporo, Japan
AP-09. Magnetic Tunnel Transistor with Epitaxial Spin Valve Base.
A. Spitzer1, J. Vigroux1, J. Moser1 and G. Bayreuther11.
Department of Physics, University of Regensburg, Regensburg,
Germany
AP-10. Tunable giant magnetoresistance in Wheatstone-bridge
devices. F.J. Castano1, I.A. Colin1, W. Jung1, D. Morecroft1 andC.A. Ross11. Depart. of Material Science and Engineering, MIT,
Cambridge, MA, USA
AP-11. Digital Magneto Resistance in Ferromagnetic Resonant
Tunneling Diodes. C. Ertler1 and J. Fabian11. Institute for
Theoretical Physics, University of Regensburg, Regensburg,
Germany
AP-12. 3-bit Gray Counter based on Magnetic-Tunnel-Junction
Elements. S. Lee1, J. Kim1, H. Yang1, G. Lee1, S. Lee1 andH. Shin11. Dep. of Information Electronics Engineering, Ewha W.
University, Seoul, South Korea

MONDAYMORNING
8:00

GRAND BALLROOM

Session AQ

RECORDING SYSTEMS: CHANNEL(POSTER SESSION)
Ksenija Lakovic, Session Chair
AQ-01. A Capacity Approaching Pipelined Low Complexity Turbo
Equalizer for Perpendicular Magnetic Recording Channels.
H.S. Alhussien1 and J. Moon11. CDS Lab., Electrical andComputer Engineering, University of Minnesota, Minneapolis,
MN, USA34

PROGRAMPROGRAM

AQ-02. A MAP based algorithm for joint estimation of transition
jitter and timing error. X. Zhang1 and R. Negi21. Agere Systems,
Allentown, PA, USA; 2. Electrical and Computer Engineering,
Carnegie Mellon University, Pittsburgh, PA, USA

AQ-13. Non-Linear Read Channel Model for Signal Processing of BitPatterned Recording Structure. J. Lee11. Samsung Electronics
Co., LTD., Suwon, Kyeonggi-Do, South Korea

AQ-03. Performance Evaluation of Partial Response Targets for
Perpendicular Recording using Field Programmable Gate
Arrays. S. Jeon1, X. Hu1, L. Sun2 and B. Vijaya Kumar11. Data
Storage Systems Center, Carnegie Mellon University, Pittsburgh,
PA, USA; 2. Marvell Semiconductor, Longmont, CO, USA
AQ-04. BER Performance of PRML system in Perpendicular
Magnetic Recording Channel with Thermal Decay.
N. Shinohara1, H. Osawa1, Y. Okamoto1, Y. Nakamura1,
A. Nakamoto2, K. Miura2, H. Muraoka2 and Y. Nakamura21.
Graduate School of Science and Engineering, Ehime University,
Matsuyama, Japan; 2. RIEC, Tohoku University, Sendai, Japan
AQ-05. A new post-processing technique based on error patternanalysis in PRML channel. Y. Okamoto1, H. Sugai1,
Y. Nakamura1, H. Osawa1, H. Aoi2, H. Muraoka2 andY. Nakamura21. Graduate School of Science and Engineering,
Ehime University, Matsuyama, Ehime, Japan; 2. RIEC, Tohoku
University, Sendai, Miyagi, Japan
AQ-06. Biased PRML scheme for transition noise dominant
perpendicular recording channels. X. Zhang1 and R. Negi21.
Agere Systems, Allentown, PA, USA; 2. Electrical and Computer
Engineering, Carnegie Mellon University, Pittsburgh, PA, USA
AQ-07. Performance and Implementation Comparisons of DFE and
PRML Detectors with and without Noise Prediction. L.P. Rao1,
M.Q. Le2, J.P. Keane3 and P.J. Hurst11. Electrical and Computer
Engg., UCDavis, Davis, CA, USA; 2. Broadcom Corporation,
Irvine, CA, USA; 3. Agilent Technologies, Palo Alto, CA, USA
AQ-08. A Reduced-Complexity Iterative Receiver Based on Simulated
Annealing for Coded Partial-Response Channels. Z. Qin1,
K. Cai1 and X. Zou11. MRC Division, Data Storage Institute,Singapore, Singapore
AQ-09. Kalman Filter Timing Acquisition for Large Frequency Drift.
J. Xie1 and B. Kumar11. Data Storage Systems Center, Carnegie
Mellon University, Pittsburgh, PA, USA
AQ-10. A New Class of Quasi-Cyclic Codes Targeting Dominant
Error Patterns. J. Park1 and J. Moon11. CDS Lab., Electrical andComputer Engineering, University of Minnesota, Minneapolis,
MN, USA
AQ-11. Novel RLL (VR2)-ECC Concatenation System for HighDensity Magnetic Recording. J. Lu1 and K.G. Boyer11. Sun
Microsystems, Louisville, CO, USA
AQ-12. Modifying Viterbi Algorithm to Handle Inter-Track
Interference in Bit-Patterned Media. S. Nabavi1, B. Kumar1 andJ. Zhu11. ECE, Carnegie Mellon University, Pittsburgh, PA, USA35

AQ-14. A Study of Iterative Decoding for Perpendicular Magnetic
Recording Channel using Patterned Media. Y. Nakamura1,
M. Nishimura1, Y. Okamoto1, H. Osawa1, H. Aoi2, H. Muraoka2
and Y. Nakamura21. Graduate School of Science and Engineering,
Ehime University, Matsuyama, Ehime, Japan; 2. RIEC, Tohoku
University, Sendai, Miyagi, Japan

AQ-15. Novel Soft Feedback Equalisation Method for Multi-level
Magnetic Recording. P. Shah1, M. Ahmed1, M. Ambroze1,
C. Tjhai1 and P.J. Davey11. School of Computing,Communications and Electronics, University of Plymouth,
Plymouth, United Kingdom

MONDAYMORNING
8:00

GRAND BALLROOM

Session AR

SENSORS AND DEVICES(POSTER SESSION)
Alan Edelstein, Session Chair
AR-01. Shielded-loop type on-chip magnetic field probe to evaluate
radiated emission from thin-film noise suppressor.
M. Yamaguchi1, S. Koya1, H. Torizuka1, Y. Shimada1, S. Aoyama2
and S. Kawahito21. Electrical and Communication Engineering,Tohoku University, Sendai, Miyagi, Japan; 2. Research Instituteof Electronics, Shizuoka University, Hamamatsu, Shizuoka, Japan

AR-02. One Dimensional AGMI Sensor With Co66Fe4Si15B15 Ribbon
As Sensing Element. K. Pradap1, C. Kim1,3, S.S. Yoon2, C-O.
Kim1,3 and K. Kim21. CNU, Dejeon, South Korea; 2. Andong
National University, Daejeon, South Korea; 3. Research Center
for Advanced Magnetic Materials(ReCAMM), Daejeon, South
Korea

AR-03. Hematite based novel nanoscale magnetic gas sensor: Gas
selectivity and temperature dependence. A. Punnoose1,
K. Reddy1, A. Thurber1 and J. Hays11. Physics, Boise State
University, Boise, ID, USA

AR-04. Magnetic Properties of Spin Valves Having Extremely Thin
MoN Underlayer. J. Kim1 and S. Jo11. School of Electronic
Engineering, Soongsil University, Seoul, South Korea

36

PROGRAMPROGRAM

AR-05. Wireless magnetic motion capture system – compensatory
tracking of positional error caused by mutual inductance -.
S. Hashi1, M. Toyoda1, S. Yabukami2, K. Ishiyama3, Y. Okazaki1
and K. Arai41. Department of Materials Science and Technology,
Gifu University, Gifu, Japan; 2. Department of ElectricalEngineering and Information Technology, Tohoku Gakuin
University, Tagajo, Japan; 3. Research Institute of ElectricalCommunication, Tohoku University, Sendai, Japan; 4. The
Research Institute for Electric and Magnetic Materials, Sendai,Japan

AS-02. Growth and magnetism of ultra-thin Fe films on Pt (110).
J. Park1,2 and Y. Lee11. Physics, Hanyang university, Seoul, South
Korea; 2. KRISS, Daejen, South Korea

AR-06. Compositional Dependence of the Magnetomechanical Effectin Substituted Cobalt Ferrite for Magnetoelastic StressSensors. C. Lo11. Center for NDE, Iowa State University, Ames,
IA, USA
AR-07. Thin film micro-transformer integrated on silicon for signal
isolation. N. Wang1, T. O’Donnell1, S. Roy1, S. Kulkarni1,
P. Mccloskey1 and C. O’Mathuna11. Tyndall National Institute,Cork, Ireland
AR-08. IrMn/ CoFe exchange-coupled multilayers for RF integrated
inductors. R. Jiang1, C. Lai1 and N. Shams11. Materials Scienceand Engineering, National Tsing Hu University, HsinChu, Taiwan
AR-09. Tensor nature of permeability and its effects in the simulationof inductive magnetic devices. L. Li1, D. Lee1, S.X. Wang1,
K. Hwang2, Y. Min2, M. Mao3, T. Schneider3 and R. Bubber31.
Materials Science and Engineering, Stanford University,
Stanford, CA, USA; 2. Intel Corporation, Chandler, AZ, USA; 3.
Veeco Instruments Fremont, Fremont, CA, USA
AR-10. Investigation on Magnetostrictive Micro Devices.
G. Scheerschmidt1, K.J. Kirk1 and G. McRobbie21. Microscale
Sensors, University of Paisley, Paisley, United Kingdom; 2.
School of Computing, University of Paisley, Paisley, United
Kingdom

MONDAYMORNING
8:00

GRAND BALLROOM

Session AS

ULTRATHIN FILMS AND SURFACE EFFECTS I(POSTER SESSION)
Jian Shen, Session Chair
AS-01. STM/MFM study of Fe ultrathin film on MgO(001) in ultrahigh vacuum. J. Lee1,2, M. Dreyer1,2, C. Krafft2 and R. Gomez1,21.
Electrical and Computer Engineering, University of Maryland,College Park, MD, USA; 2. Laboratory for Physical Science,
College Park, MD, USA

37

AS-03. Temperature effect on the magnetic properties ofcompositionally modulated ultrathin Fe/Al nano-structures.
R. Brajpuriya1, S. Tripathi1, A. Sharma1, D. Jain1, V. Ganeshan1,
T. Shripathi1 and S. Chaudhari11. UGC-DAE Consortium for
Scientific Research, Indore, M.P., India
AS-04. Non-collinear magnetic coupling in tri-layer ultra-thin films of
Fe and Ni on Cu(100). C. Andersson1, O. Karis1, J. Hunter
Dunn2,1 and D. Arvanitis11. Department of Physics, Uppsala
University, Uppsala, Sweden; 2. MAX-lab, Lund University, Lund,
SwedenAS-05. Ferromagnetic resonance study of Fe/Mn/Fe trilayers.
F. Pelegrini1, B.R. Segatto2 and E.C. Passamani21. Instituto de
Fisica, Universidade Federal de Goias, Goiania, Goias, Brazil; 2.
Departamento de Física, Universidade Federal do Espírito Santo,
Vitória, Espírito Santo, Brazil
AS-06. Morphology dependent capping layer effects in ultra-thin Co
films and nanoparticles. C. Clavero1, J. García-Martín1,
A. Cebollada1, G. Armelles1, E. Navarro3 and Y. Huttel21. IMMCSIC, Tres Cantos, Madrid, Spain; 2. ICMM-CSIC, Cantoblanco,
Madrid, Spain; 3. UCM, Madrid, Madrid, Spain
AS-07. Magnetic properties and microstructure of ultrathin
Co/Si(111) films. H. Chang1, J.S. Tsay2, F.T. Yuan1, Y.C. Hung3,
W.Y. Chan1, W.B. Su1 and Y.D. Yao11. Institute of Physics,
Academia Sinica, Taipei, 11509, Taiwan; 2. Department of
Physics, National Taiwan Normal University, Taipei, 116, Taiwan;
3. Department of Physics, National Chune Cheng University,
Chia-Yi, Taiwan
AS-08. Effect of epitaxial strain on structure and magnetic properties
of ultra-thin FeCo films. S. Mitani1 and K. Takanashi11. IMR
Tohoku University, Sendai, Japan
AS-09. Microstructure of Co/X (X=Cu, Ag, Au) Epitaxial Thin Films
Grown on Al2O3(0001) Substrates. M. Ohtake1, Y. Akita1 andM. Futamoto11. Department of Electrical, Electronic, andCommunication Engineering, Faculty of Science and Engineering,
Chuo University, Tokyo, Japan
AS-10. Ferromagnetic resonance properties of diluted-moment[Ni81Fe19]1-xCux magnetic thin films. Y. Guan1, P.G. Burke2
and W.E. Bailey11. Materials Science Program, Department ofApplied Physics, Columbia University, New York, NY, USA; 2.
Department of Materials Science and Engineering, Lehigh
University, Bethlehem, PA, USA
AS-11. Calculation of spin wave mode response induced by a coplanar
microwave line. K. Kennewell1, M. Kostylev1 and R.L. Stamps11.
School of Physics, University of Western Australia, Crawley, WA,
Australia

38

PROGRAMPROGRAM

AS-12. Effects of substrate orientation on the magnetic properties of
GaMnAs. W. Lee1, Y. Chen2, J. Huang2, P. Huang2, C. Kuo3 and
T. Chin21. Materials Science Center, National Tsing Hua
University, Hsinchu, Taiwan; 2. Department of Materials Scienceand Engineering, National Tsing Hua University, Hsinchu,
Taiwan; 3. Department of Materials Science & Engineering,
National Chiao Tung University, Hsinchu, Taiwan

AT-07. Tunable Spin Waves in K-component Fibonacci
Antiferromagnetic/ Nonmagnetic Multilayers. X. Zhang1,
R. Peng1, S. Kang2, L. Cao1, Z. Tang1, Z. Wang1, Z. Zhao1 andM. Wang11. National Laboratory of Solid State Microstructures,
Nanjing, China; 2. Center for Materials for Information
Technology, The University of Alabama, Tuscaloosa, AL, USA

MONDAYMORNING
8:00

GRAND BALLROOM

Session AT

MULTILAYER FILMS AND SUPERLATTICES I(POSTER SESSION)
Chih-Huang Lai, Session Co-chair
Minn-Tsong Lin, Session Co-chair39

AT-08. Ab initio investigations on atomistic behaviors and magnetic
properties in Fe-Cu multilayer system. C. Kim1 and Y. Chung11.
Materials Science and Engineering, Hanyang University, Seoul,
South Korea
AT-09. Photo-Induced Interlayer Exchange Coupling of Fe/Si/Fe
Trilayer Structure. S. Ueda1, Y. Iwasaki1,2, Y. Uehara1,3 and
S. Ushioda1,41. RIKEN Photodynamics Research Center, Sendai,
Japan; 2. Core Component Business Group, Sony Corporation,
Tagajo, Miyagi, Japan; 3. Research Institute of ElectricalCommunication, Tohoku University, Sendai, Japan; 4. Japan
Advanced Institute of Science and Technology, Ishikawa-ken,
Japan

AT-01. Observation of magnetic configurations in
antiferromagnetically-coupled films with perpendicularanisotropy by transport measurements. L.Y. Zhu1 andC.L. Chien11. Department of Physics and Astronomy, Johns
Hopkins University, Baltimore, MD, USA

AT-10. Temperature Controlled Exchange Coupling in Co/Ru
Multilayers Alloyed at the Interfaces. C.J. Kinane1,2,
L.A. Michez1, C.H. Marrows1, B.J. Hickey1, T.R. Charlton2 andS. Langridge21. School of Physics and Astronomy, University ofLeeds, Leeds, United Kingdom; 2. ISIS, Rutherford Appleton
Laboratory, Chilton, Oxford, United Kingdom

AT-02. Stripes in a thin-film ferromagnet. D. Clarke1, O.A. Tretiakov1,
O. Tchernyshyov1 and V.I. Nikitenko2,31. Physics and Astronomy,
Johns Hopkins University, Baltimore, MD, USA; 2. NIST,
Gaithersburg, MD, USA; 3. Institute of Solid State Physics,
Chernogolovka, Russian Federation

AT-11. Antiferromagnetic interlayer coupling through thin MgO layerin γ-Fe2O3/MgO/Fe(001) multilayers. H. Yanagihara1, Y. Toyoda1
and E. Kita11. Institute of Applied Physics, University of Tsukuba,
Tsukuba, Japan

AT-03. Multidomain states in ferromagnetic multilayers withperpendicular anisotropy. U.K. Rossler1, N.S. Kiselev2,
I.E. Dragunov2 and A.N. Bogdanov1,21. IFW Dresden, Dresden,
Germany; 2. Donetsk Institute for Physics and Technology,
Donetsk, Ukraine

AT-12. Perpendicular interlayer coupling through oscillatory RKKY
interaction between Co/Pt multilayer and Co/TbCo bilayer.
M. Lin1 and C. Lai11. Materials Science and Engineering,
National Tsing Hu University, HsinChu, Taiwan

AT-04. A transition of interlayer coupling from antiferromagnetic toferromagnetic observed at low temperature in CoFe/Bi/Co
trilayers. J. Hsu1,2 and Z. Xue11. Physics, National Taiwan
University, Taipei, Taiwan; 2. Center for Nanostorage Research,
National TaiwanUniversity, Taipei, Taiwan

AT-13. Synthesis and magnetic properties of multilayered Fe/Au
nanowires. J. Lee1, J. Cho1, J. Min1, B. An1, M. Cho1, S. No1,
Y. Kim1, H. Liu2 and J. Wu31. Materials Science and Engineering,
Korea University, Seoul, South Korea; 2. Institute for Nano
Science, Korea University, Seoul, South Korea; 3. ResearchInstitute of Engineering and Technology, Korea University, Seoul,
South Korea

AT-05. Magnetic properties of Tb100-yGdy/X multilayers (X = Ti, Si)with different thicknesses of the magnetic layers.
G.V. Kurlyandskaya1,2, A.V. Svalov2, V.O. Vaskovskiy2 and
J.M. Barandiaran11. Department of Electricity and Electronics,
Basque Country University, Leioa, Bizkaia, Spain; 2. Departmentof Physics, Ural State University, Ekaterinburg, RussianFederation

AT-14. Ti layer thickness dependent magnetic properties of annealed
Ti/Ni multilayers near solid state amorphization temperature.
P. Bhatt1,2, S.M. Chaudhari2, V.R. Reddy2 and M. Fahlman11.
Department of Science and Technology, Linköping University, SE601 74 Norrköping, Sweden; 2. UGC-DAE Consortium for
Scientific Research, University Campus, Khandwa Road, Indore,
452017 M.P., India

AT-06. Dynamic Properties of Gd/Co Multilayer Structures.
S. Demirtas1, R. Lopusnik1, A.A. Faulkner1, M.J. Wenger1,
I. Harward1, M.R. Hossu2, A.R. Koymen2, Z. Celinski1 andR.E. Camley11. Center for Magnetism and Magnetic
Nanostructures, University of Colorado at Colorado Springs,
Colorado Springs, CO, USA; 2. Department of Physics, Universityof Texas at Arlington, Arlington, TX, USA

AT-15. XMCD studies of the enhancement of Fe spin moment in[Fe70Co30/Pd]n super-lattice films with high saturation
magnetization. K. Noma1, H. Kanai1, Y. Uehara1, T. Nakamura2,
K. Nomura3, S. Doi3 and N. Awaji31. Advanced Head Technology
Dept., Fujitsu Ltd., Nagano, Japan; 2. SPring-8, JASRI, Hyogo,
Japan; 3. Nano-Electronic Materials Research and EngineeringLab., Fujitsu Laboratories Ltd., Atsugi, Japan

40

PROGRAM

AT-16. On the Physics of Magnetic Anisotropy in Co/Pd Multilayer
Thin Films. D. Smith1,3, E. Chunsheng1,2, S. Zhang1,4, T. Lee1,5,S. Khizroev6 and D. Litvinov1,21. Center for Nanomagnetic
Systems, University of Houston, Houston, TX, USA; 2. Electricaland Computer Engineering, University of Houston, Houston, TX,
USA; 3. Materials Engineering, University of Houston, Houston,
TX, USA; 4. Chemical and Biomolecular Engineering, Universityof Houston, Houston, TX, USA; 5. Chemistry, University of
Houston, Houston, TX, USA; 6. Electrical Engineering, Universityof California - Riverside, Riverside, CA, USA
AT-17. Annealing Study of Co/Pd Magnetic Multilayers forApplications in Bit-Patterned Media. E. Chunsheng1,
J.O. Rantschler1, S. Zhang1, D. Smith1, D. Weller3, S. Khizroev2
and D. Litvinov11. Center for Nanomagnetic Systems, Universityof Houston, Houston, TX, USA; 2. Electrical and Computer
Engineering, Florida International University, Miami, FL, USA;
3. Seagate Technology, Pittsburgh, PA, USA
AT-18. Instability of a twisted phase in Fe3O4/Mn3O4 superlattice.
R. Su1, K. Kuo1, D.S. Lee1 and G. Chern11. SPIN Research Centerand Physics Department, National Chung Cheng University, ChiaYi, Taiwan
AT-19. The Reversible Susceptibility Tensor of Synthetic
Antiferromagnets. D. Cimpoesu1,2, A. Stancu2 and L. Spinu31.
Advanced Materials Research Institute, University of New
Orleans, New Orleans, LA, USA; 2. Faculty of Physics, Al. I . Cuza
University, Iasi, Romania; 3. Department of Physics & Advanced
Materials Research Institute, University of New Orleans, New
Orleans, LA, USA
AT-20. Reversible Susceptibility Studies of Magnetization Switchingin FeCoB Synthetic Antiferromagnets. C. Radu1, E. Girt2,
G. Ju3, D. Cimpoesu4, A. Stancu5 and L. Spinu11. Department of
Physics & Advanced Materials Research Institute, University of
New Orleans, New Orleans, LA, USA; 2. Seagate Technology,
Fremont, CA, USA; 3. Seagate Technology, Pittsburgh, PA, USA;
4. Advanced Materials Research Institute, University of New
Orlans, New Orleans, LA, USA; 5. Faculty of Physics, Al. I. Cuza
University, Iasi, Romania
AT-21. The effect of interdiffusion on microstructure and magnetic
properties of annealed Fe/Pt multilayer thin films. S. Oh1,
P.D. Nguyen1, B. Lee1, C. Lee1, B. Koo1, T. Shimozaki2 andT. Okino31. School of Nano & Advanced Materials Engineering,
Changwon National University, Changwon, South Korea; 2.
Center for Instrumental Analysis, Kyushu Institute of Technology,
Kitakyushu, Japan; 3. Department of Applied Mathematics,
Faculty of Engnieering, Oita University, Oita, Japan
AT-22. Ferromagnetic resonance study of magnetic phases in
FeNi/Al/FeMn/Al and FeMn/Al/FeNi/Al multilayers.
F. Pelegrini1, D.R. de Jesus1, J.F. Borges2, V.P. Nascimento3 andE.B. Saitovitch31. Instituto de Fisica, Universidade Federal de
Goias, Goiania, Goias, Brazil; 2. Departamento de Física,
Universidade Estadual de Ponta Grossa, Ponta Grossa, Paraná,
Brazil; 3. Centro Brasileiro de Pesquisas Físicas, Rio de Janeiro,
Rio de Janeiro, Brazil

PROGRAMMONDAYMORNING
8:00

41

GRAND BALLROOM

Session AU

DOUBLE PEROVSKITES AND MAGNETICSEMICONDUCTORS(POSTER SESSION)
Volker Rose, Session Co-chair
Sudakar Chandran, Session Co-chair
AU-01. Growth and properties of thin films of the ferromagnetic
double perovskite La2NiMnO6 H. Guo1, J. Burgess1, E. Ada1,
S. Street1, A. Gupta1, T.G. Calvarese2 and M.A. Subramanian21.
MINT Center and Department of Chemistry, University of
Alabma, Tuscaloosa, AL, USA; 2. DuPont Central Research andDevelopment, Wilmington, DE, USA
AU-02. ON THE ORIGIN OF THE REDUCEDMAGNETORESISTANCE OF ELECTRON DOPED Fe-Mo
DOUBLE PEROVSKITES. D. Rubi1 and J. Fontcuberta11.
Instituto de Ciencia de Materiales de Barcelona, Bellaterra,
Barcelona, Spain
AU-03. Sr2CrOsO6: a half-semiconductor. Y. Krockenberger1,2,
K. Mogare1, M. Reehuis3,1, M. Tovar3, M. Jansen1,
G. Vaitheeswaran4, V. Kanchana4, F. Bultmark5, A. Delin4,
F. Wilhelm6, A. Rogalev6, A. Winkler2 and L. Alff21. Solid State
Research, Max Planck Institute, Stuttgart, Germany; 2.
Department for material research, Darmstadt University ofTechnology, Darmstadt, Germany; 3. Hahn-Meitner-Institut
Berlin, Berlin, Germany; 4. Department of Materials Science andEngineering, Royal Institute of Technology (KTH), Stockholm,
Sweden; 5. Department of Physics, University of Uppsala,Uppsala, Sweden; 6. European Synchrotron Radiation Facility(ESRF), Grenoble, France
AU-04. Key role of Re orbital moment in the magnetic properties ofRe-based double perovskites. J.M. De Teresa1, D. Serrate1,
J.M. Michalik1,2, J. Blasco1, R. Ibarra1,3, C. Kapusta2 and
M. Sikora2,41. Instituto de Ciencia de Materiales de Aragon,
CSIC-Universidad de Zaragoza, Zaragoza, Spain; 2. Faculty ofPhysics and Applied Computer Sciences, AGH University of
Science and Technology, Cracow, Poland; 3. Instituto de
Nanociencia de Aragon, Universidad de Zaragoza, Zaragoza,
Spain; 4. European Synchrotron Radiation Facility, Grenoble,
FranceAU-05. Investigation of the local Re and Fe magnetic moments in
Ca2FeReO6 double perovskite through the metal-to-insulatortransition. C. Azimonte1,2, E. Granado1,2, J.C. Cezar3,
H. Tolentino4, J. Gopalakrishnan5 and K. Ramesha51. Instituto deFísica “Gleb Wataghin”, UNICAMP, Campinas, SP, Brazil; 2.
Laboratório Nacional de Luz Síncrotron, Campinas, SP, Brazil; 3.
European Synchrotron Radiation Facility, Grenoble, France; 4.
Laboratoire de Cristallographie, Grenoble, France; 5. Solid Stateand Structural Chemistry Unit, Indian Institute of Science,
Bangalore, India

42

PROGRAM

AU-06. sp-d exchange interaction in Mn : ZnO DMS. E. Chikoidze1,2,Y. Dumont1, W. Pacuski3 and J. Von Bardeleben41. GEMAC,
CNRS, MEUDON, France; 2. Material Science Department,
Tbilisi State University, Tbilisi, Georgia; 3. Institute ofExperimental Physics, Warsaw University, Warszawa, Poland; 4.
Institut des Nanosciences de Paris (INSP), CNRS-UniversitésParis 6&7, Paris, France

AU-07. Evidence for Room Temperature Ferromagnetism in CuxZn1xO from Magnetic Studies in CuxZn1-xO/CuO Composite.
M.S. Seehra1, P. Dutta1, V. Singh1 and I. Wender21. Physics
Department, West Virginia University, Morgantown, WV, USA; 2.
Chemical and Petroleum Engineering, University of Pittsburgh,
Pittsburgh, PA, USA

AU-08. Magnetic Interactions in n-type ZnMnO thin films: anelectron paramagnetic resonance study. H.J. von Bardeleben1,
A. BenMahmoud2, J.L. Cantin1, A. Mauger3 and E. Chikoidze41.
INSP, University Paris 6, Paris, France; 2. LaPhyMNE, Facultédes Sciences, Gabes, Tunisia; 3. MIPU / CNRS, Paris, France; 4.
GEMC, CNRS, Meudon, France

AU-09. Room temperature x-ray magnetic circular dichroism ofcobalt-doped zinc oxide. K. Nielsen1, S. Bauer1,
S.T. Goennenwein1, M. Opel1, J. Cezar2, D. Schmeisser3 andR. Gross11. Walther-Meissner-Institut, Bayerische Akademie derWissenschaften, Garching, Germany; 2. European Synchrotron
Radiation Facility, Grenoble, France; 3. Brandenburgische
Technische Universität Cottbus, Cottbus, Germany

AU-10. Kinetically-controlled epitaxial growth and properties offerromagnetic Ge1-xMnx thin films. S. Yada1, M. Tanaka1,2 andS. Sugahara31. Department of Electronic Engineering, The
University of Tokyo, Tokyo, Japan; 2. SORST, Japan Science andTechnology Agency, Kawaguchi, Saitama, Japan; 3. Imaging
Science and Engineering Laboratory, Tokyo Institute ofTechnology, Yokohama, Kanagawa, Japan

AU-11. Role of oxygen and annealing in room temperature
ferromagnetism of 1D GeMn nanostructures. O. Kazakova1,
J.S. Kulkarni2 and J.D. Holmes21. NPL, Teddington, United
Kingdom; 2. UCC, Cork, Ireland

AU-12. N-type magnetic semiconductor MnGeAs2 thin film: MBE
growth and magnetic properties. S. Cho1,4, J. Choi1, S. Choi2,
Y. Hwang1, J.B. Ketterson4 and Y. Kim51. Physics, University of
Ulsan, Ulsan, Ulsan, South Korea; 2. Electronics andTelecommunications Research Institute, Taejon, Taejon, South
Korea; 3. Department of Physics and Astronomy, Northwestern
University, Evanston, IL, USA; 4. Nanodevice Research Center,
Korea Institute of Science and Technology, Seoul, South Korea; 5.
Department of Electrophysics, Kwangwoon University, Seoul,
South Korea

PROGRAMMONDAYMORNING
8:00

43

GRAND BALLROOM

Session AV

MAGNETIC TUNNEL JUNCTIONS AND SPINFILTERING(POSTER SESSION)
Jeff Parker, Session Chair
AV-01. Current and Resistance Noise Mechanisms in High TMR
MgO-based Magnetic Tunnel Junctions. A. Gokce1,
E.R. Nowak1, G.X. Miao2, A. Gupta2, K. Tsunekawa3 andD. Djayaprawira31. Physics and Astronomy, University of
Delaware, Newark, DE, USA; 2. MINT Center, University of
Alabama, Tuscaloosa, AL, USA; 3. Canon Anelva Corporation,
Tokyo, Japan
AV-02. Differential conductance measurements of fully epitaxial bccCo(001)/MgO(001)/Co(001) magnetic tunnel junctions.
S. Nishioka1, M. Mizuguchi1, M. Shiraishi1, Y. Suzuki1,2,
R. Matsumoto2,1, A. Fukushima2 and S. Yuasa21. Osaka
University, Osaka, Japan; 2. AIST, Ibaraki, Japan
AV-03. Transmission Electron Microscopy study of theFe(001)/MgO(001) interface for magnetic tunnel junctions.
C. Wang1, A. Kohn1, S. Wang2, R.C. Ward2 and A.K. PetfordLong31. Materials Department, Oxford University, Oxford, United
Kingdom; 2. Physics Department, Clarendon Laboratory, Oxford
University, Oxford, United Kingdom; 3. Materials Science
Division, Argonne National Laboratory, Argonne, IL, USA
AV-04. Grain-to-grain epitaxy as a prerequisite for the highmagnetoresistance in polycrystalline MgO-based magnetic
tunnel junction. Y. Nagamine1, Y. Choi1, K. Tsunekawa1 and
D.D. Djayaprawira11. Electron Device Equipment Division, Canon
ANELVA corporation, Fuchu-shi, Tokyo, Japan
AV-05. MTJ elements with MgO barrier using RE-TM amorphouslayers for perpendicular MRAM. T. Hatori1, H. Ohmori1,
M. Tada1 and S. Nakagawa11. Dept. of Physical Electronics, Tokyo
Institute of Technology, Tokyo, Tokyo, Japan
AV-06. Microfabrication of magnetic tunnel junctions using CH3OH
ion etching. Y. Otani1,2, H. Kubota1, A. Fukushima1, H. Maehara3,
T. Osada3, S. Yuasa1 and K. Ando11. Nanoelectronics ResearchInstitute, National Institute of Advanced Industrial Science andTechnology (AIST), Tsukuba, Ibaraki, Japan; 2. Graduate Schoolof Pure and Applied Science, Tsukuba University, Tsukuba,
Ibaraki, Japan; 3. Electron Device Equipment Division, Canon
ANELVA Corporation, Fuchu, Tokyo, Japan
AV-07. The structure of the Fe/MgO(111) interface and its
implications for the magneto-transport properties of tunnel
junction devices. V.K. Lazarov1, A. Kohn1, S.H. Cheung2,
S.A. Chambers2, M. Weinert3 and M. Gajdardziska-Josifovska31.
Materials, University of Oxford, Oxford, United Kingdom; 2.
Pacific Northwest National Laboratory, Richland, WA, USA; 3.
Physics Department and Lab for Surface studies, University of
Wisconsin-Milwaukee, Milwaukee, WI, USA

44

PROGRAMPROGRAM

AV-08. Large Exchange Bias and High Blocking Temperature of
MgO-Barrier-MTJs With L12-Ordered Mn3Ir. K. Komagaki1,
K. Yamada1, K. Noma1, H. Kanai1, K. Kobayashi1, Y. Uehara1,
M. Tsunoda2 and M. Takahashi21. Advanced Head Technology
Dept., FUJITSU LIMITED, Nagano, Japan; 2. Department ofElectronic Engineering, Tohoku University, Sendai, Japan

AW-02. Spin Transfer Dynamics in CoFeB Spinvalves. W.H. Rippard1,
M. Pufall1, M.L. Schneider1, K. Gerello1 and S. Russek11. NIST,
Boulder, CO, USA

AV-09. Ab initio study on tunneling conductance in magnetic tunnel
junctions of half-metallic full-Heusler alloys with MgObarrier. Y. Miura1, Y. Oba1, K. Nagao1 and M. Shirai11. ResearchInstitute of Electrical Communication, Tohoku University, Sendai,Japan
AV-10. Effect of work function in Co/Al2O3/CoGd magnetic tunnel
junctions. T. Moriyama1, J.Q. Xiao1, Q. Wen2 and H.W. Zhang21.
Physics and Astronomy, University of Delaware, Newark, DE,
USA; 2. School of Micro-electronic and Solid-electronic,
University of Electronic Science and Technology of China,
Chengdu, China
AV-11. SPECTROSCOPY OF A THREE-DIMENSIONALDISORDER BY SPIN-DEPENDENT RESONANTTUNNELING. H. Jaffres1, V. Garcia2, M. Marangolo2,
M. Eddrief2, V. Etgens2 and J. George11. Unité Mixte de Physique
CNRS-Thales, Palaiseau, France; 2. Institut des nanoSciences deParis, Université Paris 6 & 7, Paris, France
AV-12. Tuneable magnetism and tunnelling spin polarization of Co801
1
1
xFexB20 alloys. P.V. Paluskar , J.T. Kohlhepp , H.J. Swagten and1
B. Koopmans 1. Department of Applied Physics, Eindhoven
University of Technology, Eindhoven, Netherlands
AV-13. Room Temperature Spin Filtering in CoFe2O4 Tunnel
Barriers. M.G. Chapline1 and S.X. Wang21. Western Digital,
Fremont, CA, USA; 2. Material Science and Enginerring, Stanford
University, Stanford, CA, USA
AV-14. Near 100% Spin Filtering with EuO Tunnel Barriers.
T. Santos1 and J.S. Moodera11. Francis Bitter Magnet Lab, MIT,
Cambridge, MA, USA
AV-15. Transport characteristics and magnetoresistance with EuSspin filter tunnel barriers. T. Nagahama1,2, T.S. Santos1 andJ.S. Moodera11. Francis Bitter Magnet Laboratory, MIT,
Cambridge, MA, USA; 2. Nano-electronics Research Institute,
AIST, Tsukuba, Ibaraki, Japan

MONDAYMORNING
8:00

45

AW-03. Phase Locked Spin Torque Oscillators: Impact of Device
Variability and Time Delay. J. Persson1, Y. Zhou1 andJ. Åkerman11. Department of Microelectronics and Applied
Physics, Royal Institute of Technology, Kista, Sweden
AW-04. Magnetization Dynamics in CoFe/AlO/Py and CoFe/MgO/Py
Magnetic Tunnel Junctions. G. Finocchio1, L. Torres2,
G. Consolo1, M. Carpentieri1, A. Romeo1 and B. Azzerboni11.
University of Messina, Messina, Italy; 2. Departamento de Fisica
Aplicada, Universidad de Salamanca, Salamanca, Spain
AW-05. Relaxation time and current pulse durations on spin-transfer
magnetization switching in MgO-based magnetic tunnel
junctions. C. Lee1, J. Lee2,5, L. Ye2,5, M. Weng4,5, Y. Chen5,
J. Su3,5, Y. Huai6, Z. Diao6, Y. Ding6, A. Panchula6 and T. Wu4,51.
General Education Center, National Yunlin University of Scienceand Technology, Touliu, Taiwan; 2. Graduate school ofEngineering Science & Technology, National Yunlin University of
Science and Technology, Touliu, Taiwan; 3. Department ofElectrical Engineering, National Yunlin University of Science andTechnology, Touliu, Taiwan; 4. Graduate School of
Optoelectronics, National Yunlin University of Science andTechnology, Touliu, Taiwan; 5. Taiwan SPIN Research Center,
National Yunlin University of Science and Technology, Touliu,
Taiwan; 6. Grandis Inc., Milpitas, CA, USA
AW-06. Estimation of spin transfer torque effect and thermal effect ofmagnetization reversal in CoFeB/MgO/CoFeB
magnetoresistive tunneling junctions. M. Yoshikawa1, T. Ueda1,
H. Aikawa1, E. Kitagawa1, M. Nakayama1, T. Kai1,
K. Nishiyama1, T. Nagase1, T. Kishi1, S. Ikegawa1 and H. Yoda11.
Corporate Research & Development Center, TOSHIBA
Corporation, Kawasaki, Japan
AW-07. Current-Driven Domain Wall Dynamics. B. Krueger1,
M.A. Bolte2, G. Meier2, U. Merkt2 and D. Pfannkuche11. I.
Institute of Theoretical Physics, University of Hamburg,
Hamburg, Germany; 2. Institute of Applied Physics, University of
Hamburg, Hamburg, Germany

GRAND BALLROOM

Session AW

SPIN TORQUE: MICROWAVE OSCILLATIONS(POSTER SESSION)

AW-08. Effect of ac current on the current-induced domain wallmotion. W. Kim1, K. Lee2 and T. Lee11. Department of Materials
Science and Engineering, Korea Advanced Institute of Scienceand Technology, Daejeon, South Korea; 2. Department ofMaterials Science and Engineering, Korea University, Seoul,
South Korea

David Abraham, Session Chair
AW-01. Electrical measurement of spin-wave interactions between
closely-spaced spin transfer nano-oscillators. M. Pufall1,
W.H. Rippard1, S. Kaka2, S.E. Russek1 and J.A. Katine31. NIST,
Boulder, CO, USA; 2. Seagate Technology, Pittsburgh, PA, USA;
3. Hitachi Global Storage Technologies, San Jose, CA, USA

AW-09. Current driven hysteresis in magnetic nano-contacts.
A. Konovalenko1, V. Korenivski1, I.K. Yanson2 andY.G. Naidyuk21. Nanostructure Physics, Royal Institute ofTechnology, Stockholm, Sweden; 2. B. Verkin Institute for Low
Temperature Physics and Engineering, National Academy of
Sciences of Ukraine, Kharkiv, Ukraine

46

PROGRAMPROGRAM

AW-10. Mode-hopping of current-driven excitations in spin-valve
point-contacts. Q. Mistral1, M. van Kampen2, T. Devolder1,
P. Crozat1, J. Kim1, C. Chappert1, L. Lagae2 and G. Borghs21.
Institut d’Electronique Fondamentale, CNRS/Université ParisSud, Orsay, France; 2. IMEC, Leuven, Belgium

AX-02. Channel Width Effect on Spin-Orbit Coupling Parameter in a
Two-Dimensional Electron Gas. J. Kwon1, H. Koo1, J. Eom1,2,
J. Chang1 and S. Han11. Korea Instiute of Science and Technology,
Seoul, South Korea; 2. Sejong University, Seoul, South Korea

AW-11. Spin-torque in non-coplanar structures F1/P/F2/P/F3
D. Gusakova1, A. Vedyayev1 and U. Ebels11. SPINTEC, URA
2512 CEA/CNRS, CEA - Grenoble, Grenoble, France
AW-12. Magnetization reversal induced by spin-transfer torque froma FePt perpendicular spin polarizer. T. Seki1, S. Mitani1,
K. Yakushiji1 and K. Takanashi11. Institute for materials research,
Tohoku University, Sendai, Japan
AW-13. Current-Induced Magnetic Excitations in Nanopillar SpinValve Systems with Twin Free-Layers. J. Lee1,4, K. Shin4,
S. Choe2, K. Lee3 and C. You11. physics, Inha. university, InCheon, South Korea; 2. Physics, Seoul university, Seoul, South
Korea; 3. Advanced material engineering, Korea university,
Seoul, South Korea; 4. Nano-device research center, Korea
Institute of Science and Technology, Seoul, South Korea
AW-14. Current-Induced switching study of the canting model for
ferrimagnet thin films. A. Canizo-Cabrera1, V. Garcia-Vazquez2
and T. Wu11. Taiwan SPIN Research Center, National Yunlin
University of Science & Technology, Touliu, Yunlin, Taiwan; 2.
Instituto de Fisica Luis Rivera Terrazas, Universidad Autonoma
de Puebla, Puebla, Puebla, Mexico
AW-15. Spin transfer torque effect in AgCo granular films. Y. Luo1,
M. Esseling1, M. Münzenberg2 and K. Samwer11. I.Phys.
Institute, University Göttingen, Göttingen, Germany; 2. IV.Phys.
Institute, University Göttingen, Göttingen, Germany

MONDAYMORNING
8:00

GRAND BALLROOM

Session AX

SPIN GLASSES, LOW-DIMENSIONAL AND
STRONGLY CORRELATED SYSTEMS(POSTER SESSION)
Henri Jansen, Session Chair
AX-01. Composition Dependence of Magnetic Behavior in Mixed
Magnetic Mn/Ni Dichloride Monohydrate. G.C. DeFotis1,
T.M. Owens1, W.M. May1, J.H. Boyle1, E.S. Vos1, Y. Matsuyama1
and A.T. Hopkinson11. Chemistry, College of William and Mary,
Williamsburg, VA, USA

47

AX-03. Broken spin-Hall accumulation symmetry by external
magnetic field. S. Chen1, M. Liu1, K. Chen1 and C. Chang11.
Department of Physics, National Taiwan University, Taipei,
TaiwanAX-04. Multiple Delocalization of Electrons and Persistent Currents
in Random n-mer Mesoscopic Rings Threaded by A Magnetic
Flux. R. Zhang1, Z. Tang1, R. Peng1, L. Cao1, Z. Wang1, D. Li1,
M. Wang1 and S. Kang21. National Laboratory of Solid State
Microstructures, Nanjing, China; 2. Center for Materials for
Information Technology, Tuscaloosa, AL, USA
AX-05. Fermionic formulation for the Hopfield Ising spin-glass in atransverse field. S.G. Magalhaes1, C.J. Kipper1, F.M. Zimmer1
and P.R. Krebs21. Departamento de Física, Universidade Federal
de Santa Maria, Santa Maria, Rio Grande do Sul, Brazil; 2.
Instituto de Física e Matemática, Universidade Federal de
Pelotas, Pelotas, Rio Grande do Sul, Brazil
AX-06. Composition dependence of the critical temperatures in 3d
Heisenberg ±J spin glass. A.D. Beath1 and D.H. Ryan11. Physics
Department and the Centre for the Physics of Materials, McGill
University, Montreal, QC, Canada
AX-07. Magnetovolume effect and magnetic transition in Gd5Si4
Z. Altounian1 and X. Liu11. physics department, McGill
University, Montreal, QC, Canada
AX-08. Super heavy, possible non-Fermi liquid system CeNi9Ge4 atvery high fields and low temperatures. C.R. Rotundu1,
Y. Takano1 and B. Andraka11. Physics, University of Florida,
Gainesville, FL, USA
AX-09. Heat capacity of pyrochlore Pr2Ru2O7 M. Tachibana1,
Y. Kohama2, T. Atake2 and E. Takayama-Muromachi11. National
Institute for Materials Science, Tsukuba, Ibaraki, Japan; 2.
Materials and Structures Laboratory, Tokyo Institute ofTechnology, Yokohama, Kanagawa, Japan
AX-10. Multiple magnetic transitions and magnon gap-likecharacteristics in the high purity TbB4 single crystal.
J. Rhyee1,2, J. Kim2 and B. Cho2,31. Crystal growth gr., Max-Plank
Institute for Solid State Research, Stuttgart, Germany; 2. Dept. ofMaterials Sci. and Eng., Gwnagju Institute of Sci. and Tech.,Gwang-Ju, South Korea; 3. Center for strongly correlatedmaterials research, Seoul National University, Seoul, South Korea
AX-11. Structure and thermal expansion anomaly study on
Nd(Fe,Mo)12Nx. H. Du1, Y. Shan1, J. Yang1 and Y. Yang11. Schoolof Physics, Peking University, Beijing, China

48

PROGRAMMONDAYMORNING
8:00

PROGRAMGRAND BALLROOMMONDAYAFTERNOON
1:30

49

HARBORSIDE C

Session AY

Session BA

MAGNETIC FLUIDS AND SEPARATION(POSTER SESSION)SYMPOSIUM ON BOSE-EINSTEIN
CONDENSATION AND QUANTUM MAGNETS

Norman Wereley, Session Chair

Marcelo Jaime, Session Chair

AY-01. Synthesis of Magnetic Activated Carbons For Removal ofEnvironmental Endocrine Disrupter. H. Nagata1, S. Nakamura1,
A. Nakahira1 and K. Fukunishi21. Osaka Pref Univ, Osaka, Japan;
2. Futaba Shoji Co. LTD, Osaka, Japan

1:30

AY-02. Magnetic behavior of magnetic ionic liquid [Bmim][FeCl4].
S. Lee1, S. Ha1, C. You3 and Y. Koo1,21. ERC for Advanced
Bioseparation Technology, Inha University, Incheon, South Korea;
2. Department of Biological Engineering, Inha University,
Incheon, South Korea; 3. Department of Physics, Inha University,
Incheon, South Korea
AY-03. Magnetooptical properties of ionic magnetic fluids.
G.D. Benicio1, K.L. Miranda2, P.P. Sartoratto2, F. Pelegrini1 andA.F. Bakuzis11. Instituto de Fisica, Universidade Federal de Goias,
Goiania, GO, Brazil; 2. Instituto de Quimica, Universidade
Federal de Goias, Goiania, GO, Brazil
AY-04. Magnetic field-induced fluid flow and its effects on resistancespot nugget formation process. Y. Li1,2, Z. Lin1, J. Ni2 and
G. Chen11. Shanghai Jiao Tong University, Shanghai, China; 2.
University of Michigan, Ann Arbor, MI, USA
AY-05. How to SPION Glass Transitions Using Magnetic
Nanoparticles. P. Bidwell-Hanson1, L. Radu1, S. DeLong1,
M. Concha1, D. Caruntu1, J. Wiley1, C.J. O’Connor1 andC. Kumar21. Chemistry, University of New Orleans, New Orleans,
LA, USA; 2. Nanofabrication, Center for Advanced MicroDevices,
Baton Rouge, LA, USA
AY-06. Field-flow-fractionation of nucleic acids and proteins underlarge-scale gradient magnetic fields. M. Iwasaka11. Faculty ofEngineering, Chiba University, Chiba, Japan

BA-01. Bose-Einstein condensation in Quantum Magnets. (Invited)
V. Zapf1, D. Zocco1,5, C.D. Batista2, M. Jaime1, N. Harrison1,
T. Murphy3, E. Palm3, S. Tozer3, A. Lacerda1 and A. PaduanFilho41. National High Magnetic Field Laboratory, Los Alamos
National Lab, Los Alamos, NM, USA; 2. Condensed Matter
Theory Group, Los Alamos National Lab, Los Alamos, NM, USA;
3. NHMFL, Tallahassee, FL, USA; 4. Universidade de Sao Paulo,
Sao Paulo, Brazil; 5. University of California at San Diego, La
Jolla, CA, USA

2:06

BA-01. Quantum spin liquid in a two-dimensional antiferromagnet.
(Invited) M.B. Stone1, I. Zaliznyak2, C.L. Broholm3,4, D.H. Reich3,
O. Tchernyshyov3, T. Hong3, P. Vorderwisch5 and N. Harrison61.
Oak Ridge National Laboratory, Oak Ridge, TN, USA; 2.
Brookhaven National Laboratory, Upton, NY, USA; 3. Johns
Hopkins University, Baltimore, MD, USA; 4. NIST Center for
Neutron Scattering, Gaithersburg, MD, USA; 5. Hahn-MeitnerInstitut, Berlin, Germany; 6. National High Magnetic Field
Laboratory, Los Alamos, NM, USA

MONDAYAFTERNOON
1:30

HARBORSIDE A

Session BB
AY-07. Numerical Research on the Behavior of Magnetic Fluid under
the External Forces. G. Park1 and K. Seo11. ElectricalEngineering, Pusan National University, Busan, South Korea
AY-08. 3-D Modeling of High Gradient Magnetic Separation from
Biological Fluids. H. Chen1,5, D. Bockenfeld3, M.D. Kaminski4,
D. Rempfer3 and A.J. Rosengart1,21. Neurology, The University of
Chicago, Chicago, IL, USA; 2. Surgery, The University of Chicago,
Chicago, IL, USA; 3. Mechanical, Material and Aerospace
Engineering, Illinois Institute of Technology, Chicago, IL, USA; 4.
Chemical Engineering Division, Argonne National Laboratory,
Argonne, IL, USA; 5. Biomedical Engineering, Illinois Institute ofTechnology, Chicago, IL, USA

NANOPARTICLE SYNTHESIS I
Oksana Chubykalo-Fesenko, Session Chair
1:30

BB-01. Surface spin disorder and interparticle interaction in Fe3O4
nanoparticles probed by electron magnetic resonancespectroscopy and magnetometry. S. Pal1, P. Dutta1,
M.S. Seehra1, N. Shah2 and G.P. Huffman21. Physics, West
Virginia University, Morgantown, WV, USA; 2. Consortium for
Fossil Fuel Science, University of Kentucky, Lexington, KY, USA

50

PROGRAM
1:42

BB-01. Magnetic Properties of Heterostructured Au-Co
Nanoparticles. Y. Xu1 and J. Wang11. MINT Center & Dept. ofElectrical and Computer Engineering, University of MInnesota,
Minneapolis, MN, USA

PROGRAMMONDAYAFTERNOON
1:30

51

HARBORSIDE B

Session BC

EXCHANGE BIAS I
Sujoy Roy, Session Chair

1:54
1:30
BB-02. Square root temperature dependence of coercive field over ananomalously large range of temperature and grain size.
R.K. Das1, S. Tongay1, A.F. Hebard1, A. Gupta2 and D. Kumar21.
Physics, University of Florida, Gainesville, FL, USA; 2.
Department of Mechanical and Chemical Engineering, North
Carolina A & T State University, Greensboro, NC, USA

BC-01. On the method of exchange bias measurement. O. Hovorka1,
A. Berger2 and G. Friedman11. Electrical and Computer
Engineering, Drexel University, Philadelphia, PA, USA; 2. San
Jose Research Center, Hitachi Global Storage Technologies, San
Jose, CA, USA

2:06
1:42
BB-03. Antiferromagnetic MnO nanoparticles with an Mn3O4
ferrimagnetic shell. G.F. Rodriguez1, K. An2, T. Hyeon2,
N. Agarwal3, D.J. Smith3 and A.E. Berkowitz11. Center for
Magnetic Recording Research, University of California-San
Diego, La Jolla, CA, USA; 2. National Creative Research Center
for Oxide Nanocrystalline Materials and School of Chemical andBiological Engineering, Seoul National University, Seoul, South
Korea; 3. Center for Solid State Science and Department of
Physics and Astronomy, Arizona State University, Tempe, AZ, USA

BC-02. Numerical investigation of finite size effects on exchange
biased nanostructures. M. Gabor1, V. Baltz1, A. Bollero1,
T. Jourdan2, J. Sort3, B. Rodmacq1, F. Lançon2 and B. Dieny11.
DRFMC, SPINTEC (URA CEA/CNRS 2512 ), Grenoble, France;
2. DRFMC, SP2M/L_Sim, Grenoble, France; 3. ICREA andUniversitat Autonoma de Barcelona, Bellaterra, Spain

1:54
2:18

BB-04. Size Dependent Magnetic Properties of Polyethylene Glycol
Coated Iron Nanoparticles. S. Balakrishnan1, M.J. Bonder1,
D. Gallo1 and G. Hadjipanayis11. Physics and Astronomy,
University of Delaware, Newark, DE, USA
2:30

BB-05. Static and dynamic magnetic properties of “dumbbell” and“flower” shaped Au-Fe3O4 nanoparticles. N. Frey1, S. Srinath1,
H. Srikanth1, C. Wang2 and S. Sun21. Department of Physics,
University of South Florida, Tampa, FL, USA; 2. Department ofChemistry, Brown University, Providence, RI, USA

BC-03. Size dependent scaling of perpendicular exchange bias innanostructures. M. Albrecht1, I.L. Guhr1, O. Hellwig2, S. van
Dijken3 and G. Malinowski31. Department of Physics, Universityof Konstanz, Konstanz, Germany; 2. Hitachi San Jose ResearchCenter, Hitachi GST, San Jose, CA, USA; 3. SFI Trinity
Nanoscience Laboratory, Trinity College, Dublin, Ireland

2:06

BC-04. Field evolution of tilted vortex cores in exchange biased
ferromagnetic dots. K. Guslienko1 and A. Hoffmann11. Argonne
National Laboratory, Argonne, IL, USA

2:18
2:42

BB-06. The Effect of the Surface on the Energy Barriers of Magnetic
Nanoparticles as Multispin Systems. R.F. Evans1, O. ChubykaloFesenko2, R. Yanes2, H. Kachkachi3 and R.W. Chantrell11.
Department of Physics, University Of York, York, England, United
Kingdom; 2. Instituto de Ciencia de Materiales de Madrid,
Madrid, Cantoblanco, Spain; 3. University of Versailles,
Versailles, France

BC-05. Spin Twisting Anisotropy in Antiferromagnet/Ferromagnet
Bilayer Domain Walls. R.D. Shull1, A.J. Shapiro1,
V.S. Gornakov2, V.I. Nikitenko1,2, Y.P. Kabanov2,
O.A. Tikhomirov2, S.V. Urazhdin2, F.Y. Yang3 and C.L. Chien31.
National Institute of Standards and Technology, Gaithersburg,
MD, USA; 2. Institute of Solid State Physics, Chernogolovka,
142432 Moscow District, Russian Federation; 3. Physics
Department, The Johns Hopkins University, Baltimore, MD, USA

52

PROGRAMPROGRAM

2:30

2:06

BC-06. Asymmetry in the hysteresis loops of systems with bothexchange-bias and shape anisotropy. H. Jang1, P.A. Crowell1
and E.D. Dahlberg11. Physics, University of Minnesota,
Minneapolis, MN, USA

53

BD-04. EXTRAORDINARY HALL EFFECT IN CoPt:SiO2
COMPOSITE THIN FILMS. J. Moritz1, M. Miron1,
I.l. Prejbeanu1, B. Rodmacq1 and B. Dieny11. SPINTEC,
Grenoble, France

2:42
2:18
BC-07. The complementary nature of coercivity enhancement andexchange bias in a general ferro-antiferromagnet (F-AF)
exchange coupled system. C. Liu1, M. Sun1 and H. Fujiwara21.
Department of Mathematics and MINT Center, The University of
Alabama, Tuscaloosa, AL, USA; 2. Department of Physics and
MINT Center, The University of Alabama, Tuscaloosa, AL, USA

BD-05. Confirmation of “Atom Pumping-up Mechanism” in Fe/Ta
Film for the Fabrication of Ferromagnetic Nano-bridge.
M. Doi1, Y. Abe1, K. Miyake1, H.N. Fuke2, M. Takagishi2,
H. Iwasaki2 and M. Sahashi11. Electronic Engineering, Tohoku
University, Sendai, Japan; 2. Corporate R&D Center, TOSHIBA
Corporation, Kawasaki, Japan

2:30

MONDAYAFTERNOON
1:30

HARBORSIDE D

Session BD

SPIN TRANSPORT IN NANOSTRUCTURES

BD-06. Tuning magnetoresistance response of nanocontacts byelectrode design. G. Sarau1, S. Gliga1, R. Hertel1 andC.M. Schneider11. Institute of Solid State Research (IFF),
Research Center Jülich, Jülich, Germany

Bruce Gurney, Session Chair
2:42
1:30

BD-01. X-ray Microscopy of Local Anisotropic Magnetoresistance.
M.A. Bolte1, R. Eiselt1, H. Ziehlke1, U. Merkt1, G. Meier1,
D. Kim2 and P. Fischer21. Institute of Applied Physics and Center
for Microstructure Research, University of Hamburg, Hamburg,
Germany; 2. Center for X-ray Optics, LBL, Berkeley, CA, USA

BD-07. Extra-ordinary Hall effect and weak localization effect in selfassembled epitaxial magnetic Ni nanocrystallites embedded in
TiN matrix. T.K. Nath1, P. Khatua2 and A.K. Majumdar31.
Physics & Meteorology, Indian Institute of Technology Kharagpur,
Kharagpur, West Bengal, India; 2. Dept. of Physics, IIT Kanpur,
Kanpur, U.P., India; 3. Dept. of Physics, IIT Kanpur, Kanpur, U.P.,
India

1:42

BD-02. On-chip electrical detection of magnetization dynamics of asingle nanoscale ferromagnet. M.V. Costache1, S.M. Watts1,
M. Sladkov1, C.H. van der Wal1 and B.J. van Wees11. Physics ofNanodevices, University of Groningen, Groningen, Groningen,
Netherlands
1:54

MONDAYAFTERNOON
1:30

HARBORSIDE E

Session BE

NUMERICAL STUDIES OF DOMAIN WALLSPeter Visscher, Session Chair

BD-03. Ballistic Anisotropic Magnetoresistance in Electrodeposited
Co Nanocontacts. A. Sokolov1,2, C. Zhang2,3, E.Y. Tsymbal1,2,
J. Redepenning2,3 and B. Doudin41. Department of Physics andAstronomy, University of Nebraska - Lincoln, Lincoln, NE, USA;
2. Nebraska Center for Materials and Nanoscience, University of
Nebraska - Lincoln, Lincoln, NE, USA; 3. Department ofChemistry, University of Nebraska - Lincoln, Lincoln, NE, USA;
4. Institut de Physique et de Chimie des Matériaux de Strasbourg(IPCMS), Strasbourg, France

1:30

BE-01. AC current induced domain wall motion. Y. Nakatani1 and
T. Ono21. Department of Computer Science, University of ElectroCommunications, Chofu, Tokyo, Japan; 2. Kyoto University, Uji,
Kyoto, Japan

54

PROGRAM
1:42

BE-02. Incoherent rotation and domain wall collisions in thin film
rectangular magnetic stripes. A. Prabhakar11. ElectricalEngineering, Indian Institute of Technology, Chennai, India

PROGRAMMONDAYAFTERNOON
1:30

55

ESSEX

Session BF

HIGH FREQUENCY INDUCTORS
Donald Gardner, Session Chair
1:30

1:54

BE-03. Temperature dependence of domain wall properties in FePt:
elliptical and linear walls. D. Hinzke1, P. Asselin2,
O.N. Mryasov2, U. Nowak1 and R.W. Chantrell11. Physics,
University of York, York, United Kingdom; 2. Seagate Research,
1251 Waterfront Place, Pittsburgh, PA, USA

BF-01. Integrated On-Chip Inductors with Magnetic Films.
D.S. Gardner1, G. Schrom1, P. Hazucha1, F. Paillet1, T. Karnik1 and
S. Borkar11. Intel Corp., Santa Clara, CA, USA
BF-02. WITHDRAWN
1:42

2:06

BE-04. Domain wall switching: optimizing the energy landscape.
Z. Lu1, P.B. Visscher1 and W.H. Butler11. Physics, University of
Alabama, Tuscaloosa, AL, USA

2:18

BE-05. Micromagnetics of the Decreasing Domain Wall Mobility in
Permalloy Nanowires. A. Kunz1 and B. Kaster11. Physics,
Marquette University, Milwaukee, WI, USA

2:30

BF-03. The Influence of Ferrite Characteristics on the Inductance ofCoils with Rod Cores. M. Albach1, A. Stadler1 and M. Spang11.
Chair of Electromagnetic Fields, Friedrich-Alexander University
Erlangen-Nuremberg, Erlangen, Germany
1:54
BF-04. A new type of highly compact planar inductor. C. Dudek1,2,
F. Duverger1, M. Ledieu1 and O. Acher11. Departement Matériaux,
CEA, Monts, France; 2. UMR LEMA, Université François
Rabelais, Tours, France
2:06
BF-05. Permeability and magnetic properties of ferromagnetic
NiFe(Py)/FeCoBSi bi-layers for high frequency applications.
A. Gerber1, C. Schmutz1, J. McCord2 and E. Quandt11. smart
materials, caesar, Bonn, Germany; 2. IFW, Dresden, Germany
2:18

BE-06. Thermal effects on domain wall motion along thin
ferromagnetic wires. E. Martinez1, L. Lopez-Diaz2, L. Torres2,
C. Tristan2 and O. Alejos31. Electromechanics Engineering,
University of Burgos, Burgos, Spain; 2. Applied Physics,
University of Salamanca, Salamanca, Spain; 3. Electricity andElectronics, University of Valladolid, Valladolid, Spain

BF-06. MEMS-Based Inductively Coupled RFID Transponder for
Implantable Wireless Sensor Applications. H. Lu1,
C. Goldsmith2, L. Cauller3 and J. Lee11. Electrical Engineering,
University of Texas at Dallas, Richardson, TX, USA; 2.
MEMtronics Corp., Plano, TX, USA; 3. School of Behavioral andBrain Sciences, University of Texas at Dallas, Richardson, TX,
USA

2:42

2:30

BE-07. Various-type oscillatory transitions of magnetic domain walls
during their dynamic motion in ferromagnetic nanowires.
J. Lee1, S. Choi1, K. Lee1, D. Jeong1 and S. Kim11. ResearchCenter for Spin Dynamics & Spin-Wave Devices (ReC-SDSW) andNanospintronics Laboratory, Seoul National University, Seoul
151-744, South Korea

BF-07. Improvement of soft magnetic properties of Si/NiFe/FeCoB
thin films at GHz band frequency range by multilayer
configuration. A. Hashimoto1, S. Nakagawa1 andM. Yamaguchi21. Dept. of Physical Electronics, Tokyo Institute ofTechnology, Tokyo, Tokyo, Japan; 2. Dept. of Electrical andCommunication Engineering, Tohoku Unversity, Sendai, Miyagi,
Japan

56

PROGRAMMONDAYAFTERNOON
1:30

PROGRAMLAUREL

Session BG

INSTRUMENTATION AND MEASUREMENTTECHNIQUES I
Fabio Da Silva, Session Chair
1:30

BG-01. Characterization of a Novel Magnetic Tracking System.
J.T. Sherman1, J.K. Lubkert2, R.S. Popovic3 and
M.R. DiSilvestro11. Global Concept Development, DePuy
Orthopaedics, Inc., Warsaw, IN, USA; 2. Purdue University, West
Lafayette, IN, USA; 3. Microsystems Institute, EPFL, Lausanne,
Switzerland
1:42

57

2:30

BG-06. Off-specular polarised neutron reflectivity investigation of
periodic magnetic rings. F.Y. Ogrin1, S.M. Weekes1, R. Cubitt2,
B. Toperverg2, A. Wildes2, A. Drew3, W. Jung4, C.A. Ross4 andR. Menon51. School of Physics, University of Exeter, Exeter,
Devon, United Kingdom; 2. Institut Laue-Langevin, Grenoble,
France; 3. Department of Physics, University of Fribourg,
Fribourg, Switzerland; 4. Department of Materials Science andEngineering, Massachusetts Institute of Technology, Cambridge,
MA, USA; 5. Research Laboratory of Electronics, Massachusetts
Institute of Technology, Cambridge, MA, USA
2:42

BG-07. Fabry-Perot Open Resonator Technique for Dielectric
Permittivity and Loss Tangent Measurements of Yttrium Iron
Garnet. S. Chen1,2 and M.N. Afsar1,21. Electrical and Computer
Engineering, Tufts University, Medford, MA, USA; 2. HighFrequency Materials Measurement and Information Center, Tufts
University, Medford, MA, USA

BG-02. Indirect Measurement of the Position of a Bar Magnet using a
Hall Sensor Array. U. Marschner1 and W. Fischer11.
Semiconductor and Microsystems Technology Laboratory,
Dresden University of Technology, Dresden, Germany
1:54

BG-03. Demonstration of ultra-high MOKE sensitivity for nanomagneto-optics using dual layer nanofabrication process.
S. Wang1, A. Barman1,4, J. Maas2, A.R. Hawkins2, S. Kwon3,5 and
H. Schmidt11. School of Engineering, University of California,
Santa Cruz, Santa Cruz, CA, USA; 2. ECEn, Brigham Young
University, Provo, UT, USA; 3. Molecular Foundry, Lawrence
Berkeley National Laboratory, Berkeley, CA, USA; 4. USC
NanoCenter and Department of Physics and Astronomy,
University of South Carolina, Columbia, SC, USA; 5. School ofElectrical Engineering, Seoul National University, Seoul, South
Korea

MONDAYAFTERNOON
1:30

DOVER

Session BH

NEW APPLICATIONS I
Lawrence Bennett, Session Chair
1:30

BH-01. Mach-Zehnder Interferometric Switch Utilizing Faraday
Rotation. R. Bahuguna1, M. Mina1 and R.J. Weber11. Electricaland Computer Engineering, Iowa State University, Ames, IA, USA

2:06
1:42
BG-04. The transverse magneto-optical Kerr effect using mixed sand p-polarized incident light. D.A. Allwood1, S. Basu1,
P. Seem2 and R.P. Cowburn21. Department of Engineering
Materials, University of Sheffield, Sheffield, United Kingdom; 2.
Department of Physics, Imperial College London, London, United
Kingdom

BH-02. Magnetic measurement of moisture content of grains.
K. Tsukada1 and T. Kiwa11. Electrical and Electronic
Engineering, Okayama University, Okayama, Japan
1:54

2:18

BG-05. Angular dependent X-ray magnetic circular dichroism using
total electron yield. C. Sanchez-Hanke11. National SynchrotronLight Source, Brookhaven National Laboratory, Upton, NY, USA

BH-03. Soft magnetic devices applied for low zero excursion (10-2/h)four mode RLG. C. Huanfu1 and Z. Hong11. Computer Scienceand Technology, Guangdong University of Finance, Guangzhou,
Guangdong, China

58

PROGRAMPROGRAM

59

2:06

9:36

BH-04. Analysis of Minor Hysteresis Loops for Neutron Irradiation
and Plastic Deformation in Fe Metal. S. Takahashi1,
Y. Kamada1, H. Kikuchi1, S. Kobayashi1, N. Ebine2, K. Ara1 and
M. Suzuki21. NDE&Science Research Center, Iwate University,
Morioka, Japan; 2. Department of Reactor Safety Research,
Japan Atomic Energy Agency, Tokai, Japan

CA-02. Wireless magnetoelastic physical, chemical and biologicalsensors. (Invited) C. Grimes11. Department of ElectricalEngineering, The Pennsylvania State University, University Park,
PA, USA
10:12

2:18
BH-05. Magnetically driven formation of non-magnetic monodisperse
emulsions. D.S. Halverson1 and G. Friedman11. ECE department,
Drexel University, Philadelphia, PA, USA

CA-03. Materials optimization for magnetic MEMS application.
(Invited) M. Gibbs11. Centre for Advanced Magnetic Materials &Devices, University of Sheffield, Sheffield, United Kingdom
10:48

2:30
BH-06. MAGNETORHEOLOGICAL BYPASS DAMPER
EXPLOITING FLOW THROUGH A DUCT CONTAINING
A POROUS MATERIAL. W. Hu1, E. Cook1 and N.M. Wereley11.
Aerospace Engineering, University of Maryland, College Park,
MD, USA

CA-04. Magnetic Templates for Nanometer Scale Manipulation andAssembly. (Invited) J. Moreland1, D. Porpora2, W. Krauser3 and
V.M. Bright31. NIST, Boulder, CO, USA; 2. Physics, Colorado
School of Mines, Golden, CO, USA; 3. Mechanical Engineering,
University of Colorado, Boulder, CO, USA
11:24

2:42
BH-07. Modeling and Design of the Permanent Magnet Thrust
Bearing. H. Yang1 and R. Zhao11. College of ElectricalEngineering, Zhejiang University, Hangzhou, Zhejiang, China

MONDAYAFTERNOON
3:45

HARBORSIDE

Session BX

PLENARY SESSION
Julie Borchers, Session Chair

CA-05. Magnetic Micro-Machines for Novel Applications. (Invited)
M. Nakano1, F. Yamashita4, T. Honda2, J. Yamasaki2, K. Ishiyama3,
J. Fiedler5, T. Yanai1 and H. Fukunaga11. Electronics andElectrical Engineering, Nagasaki University, Nagasaki, Japan; 2.
Kyushu Institute of Technology, Kitakyushu, Japan; 3. Tohoku
University, Sendai, Japan; 4. Matsushita Electric Industrial Co.
Ltd., Daito, Japan; 5. Vienna University of Technology, Vienna,
Austria

TUESDAY
MORNING
9:00

HARBORSIDE A

Session CB
TUESDAY
MORNING
9:00

HARBORSIDE C

HEAD-DISK INTERFACE AND TRIBOLOGY I
Jing Gui, Session Chair
9:00

Session CA

SYMPOSIUM ON MAGNETIC MEMSTECHNOLOGIES
Thomas Schrefl, Session Chair
9:00
CA-01. Microscale Magnetic Power Generation: Past, Present, andFuture. (Invited) D.P. Arnold11. Electrical and Computer
Engineering, University of Florida, Gainesville, FL, USA

CB-01. Absolute Slider Fly-Height Measurement Without TouchDown. L. Zhu1, C. Yang1, Y. Fu1 and E.T. Cha11. Husko Inc.,
Milpitas, CA, USA
9:12

CB-02. Slider Dynamics on Patterned Media in Hard Disk Drives.
V. Gupta1 and D.B. Bogy11. Mechanical Engineering, Universityof California, Berkeley, CA, USA

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9:24

10:48

CB-03. Mean-Plane Spacing Limit and Slider Technology for Fully
Stable Head-Disk Interface Under Various Working
Conditions. B. Liu1, S. Yu1, M. Zhang1 and L. Gonzaga11. Data
Storage Institute, Singapore, Singapore

CB-10. Flyability Failures Due to Siloxanes at the Head-Disk
Interface Revisited: The Real Cause. X. Guo1, V. Raman1,
T. Karis1 and Y. Yao21. Hitachi GST, San Jose, CA, USA; 2.
Hitachi GST, Singapore, Singapore
11:00

9:36

CB-04. Dynamics of Partial Contact Head Disk Interface. D. Chen1
and D.B. Bogy11. Computer Mechanics Laboratory, University ofCalifornia at Berkeley, Berkeley, CA, USA

61

CB-11. Lubricant Depletion due to Laser Heating in Heat-Assisted
Magnetic Recording. L. Wu11. ME, University of NebraskaLincoln, Lincoln, NE, USA
11:12

9:48

CB-05. Slider – Disk – Head Stack Assembly Modeling in Hard Disk
Drives Using Model Order Reduction Technique. V. Gupta1 and
D.B. Bogy11. Mechanical Eng, University of California, Berkeley,
Berkeley, CA, USA

CB-12. Lifshitz-van der Waals and Lewis acid-base Approach for
Analyzing Surface Energy of Molecularly Thin Lubricant
Films. H. Chen1, L. Li2, P.M. Jones2, Y. Hsia2 and M.S. Jhon11.
Depart of Chemical Engineering and Data Storage Systems
Center, Carnegie Mellon University, Pittsburgh, PA, USA; 2.
Mechanical Integration and Tribology, Seagate Technology,
Pittsburgh, PA, USA

10:00
11:24
CB-06. A Novel HDD “Component-Level” Operational-ShockMeasurement Method. B.H. Thornton1, T. Eguchi2 and
M. Suk11. Advanced Technology, Hitachi GST, San Jose, CA,
USA; 2. Research & Development Group, Hitachi, Ltd., Ibaraki,
Japan
10:12

CB-07. Advances of optical n&k testing of magnetic heads withimaging spectroscopic ellipsometry. M. Vaupel1, S. Yunfeng2 andY. Zhimin21. Nanofilm Technologie GmbH, Goettingen, Germany;
2. Data Storage Institute DSI, Singapore, Singapore
10:24

CB-08. Robustness under Mechanical Stress of IrMnCr heads.
T. Ohtsu1, K. Kataoka1, M. Torigoe2, H. Tanaka2, S. Sasaki2,
D. Hsiao3, D. Heim3, S. Lou3 and C. Fox31. Hitachi Global
Storage Technologies Japan, Ltd., Odawara, Kanagawa, Japan; 2.
Storage Technology Research Center, Hitachi, Ltd., Odawara,
Kanagawa, Japan; 3. Hitachi Global Storage Technologies, Inc.,
Sanjose, CA, USA

CB-13. Evaluation of Spreading Characteristics of Submonolayer
Lubricant Films on Magnetic Disks Using Molecular
Dynamics Simulation. Y. Tagaya1, K. Fukuzawa2,3, H. Zhang4
and Y. Mitsuya21. Mechanical Science and Engineering, Nagoya
University, Nagoya, Aichi, Japan; 2. Micro/Nano Systems
Engineering, Nagoya University, Nagoya, Aichi, Japan; 3. JSTPRESTO, Kawaguchi, Saitama, Japan; 4. Complex Systems
Science, Nagoya University, Nagoya, Aichi, Japan
11:36
CB-14. Molecular Adhesion Model for the Bridged State of aMagnetic Recording Slider. T. Karis1 and X. Guo11. Hitachi
Global Storage Technologies, San Jose, CA, USA

TUESDAY
MORNING
9:00

HARBORSIDE B

Session CC

PATTERNED STRUCTURES I
Dieter Weller, Session Chair

10:36
9:00
CB-09. Study of lubricant pickup at the head-disk interface underlaser irradiation. J. Zhang1, R. Ji1, J. Xu2, J. Ng2, B. Xu1,
H. Yuan1, S. Piramanayagam1 and T. Liew11. Data Storage
Institute, Singapore, Singapore; 2. Institute of Materials Research& Engineering, Singapore, Singapore

CC-01. Highly Ordered Arrays of Magnetic Nanostructures overMacroscopic Areas. S.M. Weekes1, F.Y. Ogrin1, J.D. Apweiler1
and T.N. Evershed11. Physics, University of Exeter, Exeter, United
Kingdom

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9:12

10:48

CC-02. Large-scale Magnetic Nanoring Arrays by Interference
Lithography and Electrochemical Deposition. W. Lee1, R. Ji1,
U. Gösele1 and K. Nielsch11. Max Planck Institute ofMicrostructure Physics, Halle, Germany

CC-08. Direct Measurement of Switching Field Distributions in
Nano-Patterned Media. B.D. Belle1, F. Schedin1, T.V. Ashworth2,
N. Pilet2, P.W. Nutter1, E.W. Hill1, H.J. Hug2,3 and J.J. Miles11.
School of Computer Science, The University of Manchester,Manchester, M13 9PL, United Kingdom; 2. Institute of Physics,
University of Basel, Basel, 4056, Switzerland; 3. Swiss Federal
Laboratory for Materials Testing and Research, Dübendorf, CH8600, Switzerland

9:24

CC-03. Inhomogeneities in the Spin States of Geometrically Identical
Elongated Co Rings. X. Gao1, A.O. Adeyeye2, S. Goolaup2,
N. Singh3, W. Jung4, F.J. Castaño4 and C.A. Ross41. SingaporeMIT Alliance, National University of Singapore, Singapore,
Singapore; 2. Information Storage Materials Laboratory,
Department of Electronic and Computer Engineering, National
University of Singapore, Singapore, Singapore; 3. Institute ofMicroelectronics, Singapore, Singapore; 4. Department ofMaterials Science and Engineering, Massachusetts Institute ofTechnology, Cambridge, MA, USA

63

11:00

CC-09. Switching characterisation and control of pseudo-spin-valve
ring structures. T.J. Hayward1, J. Llandro1, D. Morecroft1,
F.D. Schackert1, R.B. Balsod1, J.C. Bland1, F.J. Castaño2 andC.A. Ross21. Department of Physics, University of Cambridge,
Cambridge, United Kingdom; 2. Department of Material Scienceand Engineering, Massachusetts Institute of Technology,
Cambridge, MA, USA

9:36
11:12
CC-04. Relationships between structure and properties innanomagnetic materials. (Invited) A. Petford-Long11. Materials
Science Division, Argonne National Laboratory, Argonne, IL,
USA
10:12

CC-05. Manipulating the dipolar magnetic interactions in FePt/CoPt
square arrays: The role of edge roughness and soft magnetic
inter-dot phases. S. Dreyer1, S. Schnittger1, J. Norpoth1,
J. Hoffmann1, C. Jooss1, S. Sievers2, M. Albrecht2 andU. Siegner21. Institute of Materials Physics, University of
Goettingen, Goettingen, Germany; 2. Physikalisch-Technische
Bundesanstalt, Braunschweig, Germany
10:24

CC-06. Systematic investigation of Permalloy nanostructures formagnetologic applications. S.A. Haque1, R. Engel-Herbert1 and
T. Hesjedal11. E&CE Dept., University of Waterloo, Waterloo, ON,
CanadaCC-10. Coupled magnetic, acoustic, and plasmonic modes after laser
excitation through nanohole arrays. L. Le Guyader1,A. Kirilyuk1, G.A. Wurtz2, A.V. Zayats2, I.I. Smolyaninov3 andT. Rasing11. Institute for Molecules and Materials, Radboud
University Nijmegen, Nijmegen, Netherlands; 2. School ofMathematics and Physics,, The Queen’s University of Belfast,
Belfast, United Kingdom; 3. Department of Electrical andComputer Engineering, University of Maryland, College Park,
MD, USA
11:24

CC-11. Magnetic Bubbles in Perpendicular Anisotropy Nanodots.
C. Moutafis1, S. Komineas2, C.A. Vaz1, J.A. Bland1, T. Shima3,
T. Seki4 and K. Takanashi41. Physics Department, Cavendish
Laboratory, Cambridge University, Cambridge, United Kingdom;
2. Max-Planck Institute of Complex Systems, Dresden, Germany;
3. Faculty of Engineering, Tohoku-Gakuin University, Tagajyo,
Japan; 4. Institute for Materials Research Tohoku University,
Sendai, Japan
11:36

10:36

CC-07. Magnetization reversal process in microfabricated FePt dot
arrays. K. Takanashi1, D. Wang1, T. Seki1 and T. Shima21.
Institute for Materials Research, Tohoku University, Sendai,
Japan; 2. Faculty of Engineering, Tohokugakuin University,
Tagajo, Japan

CC-12. Magnetic domain structure of nanohole arrays in Ni films.
D. Navas1, M. Jaafar1, A. Asenjo1, M. Hernandez-Velez2,
J.M. Garcia-Martin3 and M. Vazquez11. Instituto de Ciencia deMateriales de Madrid, Madrid, Spain; 2. Departamento de Física
Aplicada, Universidad Autónoma de Madrid, Madrid, Spain; 3.
Instituto de Microelectrónica de Madrid, Tres Cantos (Madrid),
Spain

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65

11:48

9:48

CC-13. Dynamic Properties of Arrays of Ferromagnetic RectangularBars. R. Adam1, Y. Khivintsev2, C.M. Schneider1, A. Hutchison2,
R. Camley2 and Z. Celinski21. Institute for Solid State Research(IFF), Research Centre Jülich, Jülich, Germany; 2. Center for
Magnetism and Magnetic Nanostructures, UCCS, Colorado
Springs, CO, USA

CD-05. Micromagnetic Modal Analysis of Spin-Transfer-Driven
Ferromagnetic Resonance of Individual Nanomagnets.
L. Torres1, G. Finocchio2, L. Lopez-Diaz1, E. Martinez3,
M. Carpentieri2, G. Consolo2 and B. Azzerboni21. Dept. Fisica
Aplicada, Universidad de Salamanca, Salamanca, Spain; 2.
University of Messina, Messina, Italy; 3. Universidad de Burgos,
Burgos, Spain
10:00

TUESDAY
MORNING
9:00

HARBORSIDE D

Session CD

CD-06. Spin-Torque Effect and FMR End-Modes in Current-InPlane GMR Spin-Valves. N. Smith1, J.A. Katine1, J.R. Childress1
and S. Maat11. Hitachi Global Storage Technologies, San Jose,
CA, USA

SPIN TORQUE: MICROWAVE OSCILLATIONS
Philip Trouilloud, Session Chair
9:00

CD-01. Angular dependence of microwave excitation threshold in
current-driven magnetic nano-contacts. V. Tiberkevich1,
A. Slavin1 and G. Melkov21. Physics, Oakland University,
Rochester, MI, USA; 2. Radiophysics Faculty, Taras Shevchenko
Kiev University, Kiev, Ukraine
9:12

CD-02. Magnetization dynamics in point contacts to single Co films.
O.P. Balkashin1, I.K. Yanson1, V.v. Fisun1, L.Y. Triputen1,
A. Konovalenko2 and V. Korenivski21. B. Verkin Institute for Low
Temperature Physics and Engineering, National Academy of
Sciences of Ukraine, Kharkiv, Ukraine; 2. Nanostructure Physics,
Royal Institute of Technology, Stockholm, Sweden
9:24

CD-03. Investigation of spin-wave excitation in single layered
ferromagnetic film by nano-bridge point contacts. T. Kim1,
K. Shin2 and K. Char1,21. Center for Strongly CorrelatedMaterials Research and Dept. of Physics and Astronomy, Seoul
National University, Seoul, South Korea; 2. Future Technology
Research Division, Korea Institute of Science and Technology,
Seoul, South Korea
9:36

CD-04. Spin Transfer, Oersted Field Induce a Vortex Nano-Oscillatorin Thin Ferromagnetic Film Devices. M. Hoefer1 and
T.J. Silva11. NIST, Boulder, CO, USA

10:12

CD-07. Stochastic theory of spin-transfer oscillator linewidths.
J. Kim11. Institut d’Electronique Fondamentale, CNRS/Université
Paris-Sud, Orsay, France
10:24

CD-08. Magnetic vortex oscillations driven by DC spin-polarized
currents. V. Pribiag1, P. Braganca1, G. Fuchs1, A. Garcia1,
I. Krivorotov2, O. Ozatay1, J. Sankey1, D. Ralph1 and
R. Buhrman11. Applied & Engineering Physics, Cornell
University, Ithaca, NY, USA; 2. Physics, UC Irvine, Irvine, CA,
USA
10:36

CD-09. Low-Field Ferromagnetic Resonance Studies of Spin-torque
Driven Excitations in Magnetic Nanopillars. G.D. Fuchs1,
J.C. Sankey2, P.M. Braganca1, A. Garcia3, E.M. Ryan1, L. Qian1,
D.C. Ralph2 and R.A. Buhrman11. Applied Physics, Cornell
University, Ithaca, NY, USA; 2. Physics, Cornell University,
Ithaca, NY, USA; 3. Applied Physics, Standford University, Palo
Alto, CA, USA
10:48

CD-10. Analytical prediction of line-width in spin-torque driven
magnetization self-oscillations. C. Serpico1, G. Bertotti2,
R. Bonin2, M. d’Aquino1 and I.D. Mayergoyz31. Dept. ofElectrical Engineering, University of Napoli, Napoli, Italy; 2.
Istituto Nazionale di Ricerca Metrologica (INRIM), Torino, Italy;
3. ECE Department and UMIACS, University of Maryland,College Park, MD, USA

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PROGRAMPROGRAM

67

11:00

9:12

CD-11. Model of phase locking in spin-transfer-driven magnetization
dynamics. R. Bonin1, G. Bertotti1, C. Serpico2, M. d’Aquino2 andI.D. Mayergoyz31. INRIM, Torino, Italy; 2. Dept. of ElectricalEngineering, University of Napoli Federico II, Napoli, Italy; 3.
Dept. of Electrical and Computer Engineering, University of
Maryland, College Park, MD, USA

CE-02. Efficient spin detection across the hybrid Co/GaAs Schottky
interface. T. Trypiniotis1, D.Y. Tse1, S.J. Steinmuller1, W. Cho1
and J.C. Bland11. Department of Physics, University ofCambridge, Cambridge, United Kingdom

9:24
11:12

CD-12. Simulation of mutual phase-locking in double point contacts.
G. Hrkac1, T. Schrefl1, O. Ertl2, S. Bance1 and A. Goncharov11.
Department of Engineering Materials, University of Sheffield,
Sheffield, South Yorkshire, United Kingdom; 2. Vienna Universityof Technology, Insitute of Solid State Physics E138, Vienna,
Vienna, Austria

11:24

CD-13. Intrinsic phase shift between a spin torque oscillator and an
injected RF current. Y. Zhou1, J. Persson1 and J. Åkerman11.
Department of Microelectronics and Applied Physics, RoyalInstitute of Technology, Electrum 229, 164 40 Kista, Sweden

11:36

CD-14. Spin Transfer Oscillators connected in series : Numericalsimulations and Experiments. O. Boulle1, J. Grollier1, V. Cros1,
C. Deranlot1, G. Faini2 and A. Fert11. UMR CNRS-Thales,
Palaiseau, France; 2. LPN CNRS, Marcoussis, France

CE-03. Structure, spin polarization, and electrical spin injection fromFe(1-x)Gax films on AlGaAs/GaAs heterostructures.
A.T. Hanbicki1, O.J. van ‘t Erve1, C.H. Li1, G. Kioseoglou1,
R. Goswami1, M. Osofsky1, S. Cheng1, G. Spanos1 and
B.T. Jonker11. Naval Research Laboratory, Washington, DC, USA

9:36

CE-04. Atomic structure of the Fe/AlGaAs interface and its influenceon spin transport. (Invited) T. Zega11. Materials Science andTechnology Division, Naval Research Laboratory, Washington,
D.C., DC, USA

10:12

CE-05. Electrical Spin Injection and Detection in Fe/GaAs
Heterostructures. X. Lou1, C. Adelmann2, C.J. Palmstrøm2 and
P.A. Crowell11. School of Physics and Astronomy, University of
Minnesota, Minneapolis, MN, USA; 2. Dept. of Chemical
Engineering and Materials Science, University of Minnesota,
Minneapolis, MN, USA

10:24

TUESDAY
MORNING
9:00

HARBORSIDE E

CE-06. Electron Tunneling across EuS / InAs Heterojunctions.
R.L. Kallaher1, P. Xiong1, S. von Molnár1, M. Field2 andG.J. Sullivan21. MARTECH / Department of Physics, Florida
State University, Tallahassee, FL, USA; 2. Rockwell ScientificCompany LLC, Thousand Oaks, CA, USA

Session CE

SPIN INJECTION IN SEMICONDUCTORS ANDMETALS I

10:36

Evgeny Tsymbal, Session Chair
9:00

CE-01. Efficient spin injection from a ferromagnet into asemiconductor. V. Karpan1, M. Zwierzycki2 and P.J. Kelly11.
University of Twente, Enschede, Netherlands; 2. Max-PlanckInstitut für Festkörperforschung, Stuttgart, Germany

CE-07. Efficient spin filtering in GaAs/MgO/Fe structures. Y. Park1,2,
M. van Veenhuizen1, J. Philip1, J. Lee1,2, J.S. Moodera1,
C.H. Perry3, D. Heiman3, C. Chang4 and S. Ramanathan41.
Francis Bitter Magnet Lab, Massachusetts Institute of Technology,
Cambridge, MA, USA; 2. Nanodevice Research Center, Korea
Institute of Science and Technology, Seoul, South Korea; 3.
Department of Physics, Northeastern University, Boston, MA,
USA; 4. Division of Engineering and Applied Sciences, Harvard
University, Cambridge, MA, USA

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PROGRAM
10:48

CE-08. Tunable spin tunnel contacts to Si using low work function
ferromagnets. B. Min1, K. Motohashi1, C. Lodder1 andR. Jansen11. MESA+ Institute for Nanotechnology, University ofTwente, Enschede, Netherlands

PROGRAMTUESDAY
MORNING
9:00

69

ESSEX

Session CF

RARE-EARTH MAGNETS: MATERIALS AND
PROCESSING
Christina Chen, Session Chair

11:00
9:00
CE-09. Magnetic Field Induced Suppression of Spin injection in Febased InAs Quantum Dots Spin LEDs. M. Yasar1, I. Khan1,
M. Diaz-Avila1, A. Petrou1, C.H. Li2, G. Kioseoglou2,
A.T. Hanbicki2, M.E. Ware2, D. Gammon2 and B.T. Jonker21.
Physics, SUNY at Buffalo, Buffalo, NY, USA; 2. Naval ResearchLaboratory, Washington, DC, USA

CF-01. Microstructure and magnetic properties of rapidly solidified
MRE-Fe-Co-M-B (MRE=Y+Dy+Nd, M=Zr+TiC). W. Tang1,
Y. Wu1, K.W. Dennis1, M.J. Kramer1, I.E. Anderson1 and
R.W. McCallum11. Ames Lab of USDOE, Ames, IA, USA

11:12

9:12

CE-10. Spin polarization in a spin-FET structure. P. Kotissek1,
M. Bailleul1,2, M. Sperl1, A. Spitzer1, D. Schuh1, W. Wegscheider1
and G. Bayreuther11. Institut für Experimentelle und Angewandte
Physik, Universität Regensburg, Regensburg, Germany; 2.
IPCMS, Strasbourg, France

CF-02. Magnetic properties, phase evolution, and microstructure ofmelt spun SmCo7-xHfxCy(x=0-0.5; y=0-0.3) ribbons.
H. Chang1,2, S. Huang2, C. Chang2, C. Chiu2, W. Chang2, A. Sun3and Y. Yao11. Academia Sinica, Taipei, Taiwan; 2. physics,
National Chung Cheng University, Chia-Yi, Taiwan; 3. physics,
National Taiwan University, Taipei, Taiwan

11:24

CE-11. Spin injection into Au nanoparticles through a MgO tunnel
barrier. Y. Nogi1, H. Wang1, S. Mitani1,2, K. Yakushiji1, F. Ernult1
and K. Takanashi1,21. IMR Tohoku University, Sendai, Japan; 2.
CREST-JST, Kawaguchi, Japan

11:36

CE-12. Towards Electrical Spin Injection into a Single InAs/GaAs
Quantum Dot. C.H. Li1, G. Kioseoglou1, A.T. Hanbicki1, O.J. van‘t Erve2 and B.T. Jonker11. Code 6361, Naval ResearchLaboratory, Washington, DC, USA; 2. Philips ResearchLaboratories, Eindhoven, Netherlands

9:24

CF-03. Magnetic properties of Sm5Fe17 melt-spun ribbon. T. Saito11.
Mechanical Science and Engineering, Chiba Institute ofTechnology, Narashino, Japan

9:36

CF-04. Effect of ternary alloying elements on the microstructures andmagnetic properties of Co-rich Sm-Co alloys. R.K. Valiveti1,
C. Baudot2,1 and J.E. Shield11. Mechanical Engineering,
University of Nebraska, Lincoln, NE, USA; 2. University ofRouen, Rouen, France

9:48
11:48

CE-13. Effect of additional ferromagnet on spin accumulation in
Py/Au/Py device. J. Ku1,3, J. Chang1, J. Eom1,2, S. Han1 andG. Kim31. Nano device research center, Korea Institute of Scienceand Technology (KIST), Seoul, South Korea; 2. Department of
Physics, Sejong University, Seoul, South Korea; 3. Department ofElectrical Engineering, Korea University, Seoul, South Korea

CF-05. Effect of Ga substitution on the structural and magnetic
properties of melt spun Pr3(Fe,Co,Ti)29 system.
S. Kuchimanchi1, Q. Chen2, B. Ma3, M. Huang4 andM.E. McHenry11. Materials Science and Engineering, Carnegie
Mellon University, Pittsburgh, PA, USA; 2. Currently at US
Banks, HongKong,, Formerly at Rhodia Inc., Cranbury, NJ, USA;
3. Spang, Pittsburgh, PA, USA; 4. UES Inc., Dayton, OH, USA

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PROGRAMPROGRAM

10:00

11:12

CF-06. Order-Disorder Transformations in Rare Earth-Transition
Metal Systems. Y.Y. Kostogorova-Beller1, J.E. Shield1 and
M.J. Kramer21. University of Nebraska-Lincoln, Lincoln, NE,
USA; 2. Iowa State University, Ames, IA, USA

10:12

CF-07. New hybrid permanent magnets for high-temperatureapplications. M. Marinescu1, J. Liu2, D. Sultana1, P. Vora2 andG.C. Hadjipanayis11. Department of Physics & Astronomy, Univ.
of Delaware, Newark, DE, USA; 2. Electron Energy Corporation,
Landisville, PA, USA

10:24

CF-08. Numerical simulation of a magnetostatically coupled
composite magnet. A. Gabay1 and G.C. Hadjipanayis11. Physics
and Astronomy, University of Delaware, Newark, DE, USA

10:36

CF-09. High-throughput Investigation of Exchange Coupling
Interaction in Soft/Hard Magnetic Bilayer Systems forDevelopment of Nanocomposite Magnets. A.J. Zambano1,
H. Oguchi1, I. Takeuchi1, S. Lofland2, D. Josell3, L.A. Bendersky3
and J. Liu41. Department of Materials Science & Engineering andCenter for Superconductivity Research, University of Maryland,College Park, MD, USA; 2. Department of Physics and Astronomy,
Rowan University, Glassboro, NJ, USA; 3. National Institute ofStandars and Technology, Gaithersburg, MD, USA; 4. Departmentof Physics, University of Texas at Arlington, Arlington, TX, USA

10:48

CF-10. Consolidation of Nd-Fe-B melt-spun ribbons by compression
shearing method. T. Saito1, H. Takeishi1 and N. Nakayama21.
Mechanical Science and Engineering, Chiba Institute ofTechnology, Narashino, Japan; 2. Machine Intelligence andSystems Engineering, Akita Prefectural University, Honjyo, Japan71

CF-12. EBSD texture analysis of SmCo5 and NdFeB magnets. M.F. deCampos1, T. Yonamine1, R. Machado1, S.A. Romero2,
F.G. Landgraf3, D. Rodrigues4 and F.P. Missell1,51. Dimat - Predio
3, Inmetro, Duque de Caxias RJ, RJ, Brazil; 2. Instituto de Fisica,
Universidade de Sao Paulo, Sao Paulo SP, SP, Brazil; 3. Dept.
Metalurgia e Materiais - Escola Politecnica, Universidade de Sao
Paulo, Sao Paulo SP, SP, Brazil; 4. Instituto de Pesquisas
Tecnologicas, Sao Paulo SP, SP, Brazil; 5. Universidade de Caxias
do Sul, Caxias do Sul RS, RS, Brazil
11:24
CF-13. The effect of key process parameters on the X-ray
crystallographic texture of PrFeB HD sintered magnets
produced using high-energy milling. .A. Périgo1,2, E.P. Soares1,
N.B. Lima1, H. Takiishi1, C.C. Motta2 and R.N. Faria11.
Laboratório de Materiais Magnéticos, Instituto de Pesquisas
Energéticas e Nucleares, São Paulo, São Paulo, Brazil; 2.
Laboratório de Microondas de Potência, Centro Tecnológico daMarinha em São Paulo, São Paulo, São Paulo, Brazil
11:36
CF-14. New Preparation Method of Rare Earth Bonded Magnets with
Continuously Controlled Anisotropy Directions. F. Yamashita1,
K. Kawamura1, Y. Okada1, H. Murakami1, M. Ogushi1,
M. Nakano2 and H. Fukunaga21. Matsushita Electric Industrial
Co,. Ltd., Daito, Japan; 2. Nagasaki Univ., Nagasaki, Japan
11:48
CF-15. Environmental Stability of RE-Fe-B Based Bonded Magnets.
D. Brown1, Z. Chen1, P. Guschl1 and D. Miller11. Magnequench,
Singapore, Singapore

TUESDAY
MORNING
9:00

LAUREL

Session CG

CRITICAL PHENOMENA:
SUPERCONDUCTIVITY
Matthew Stone, Session Chair
9:00

11:00

CF-11. Spherical Nd-Fe-B fine powder with high performance
prepared by mechanical alloying. J. Han1, S. Liu1, X. Zhang1,
C. Wang1, H. Du1 and Y. Yang11. School of Physics, Peking
University, Beijing, China

CG-01. Bose-Einstein condensation in spin systems. (Invited)
T. Giamarchi1, R. Citro3, E. Orignac2 and M. Zvonarev11. DPMCMaNEP, University of Geneva, Geneva, Switzerland; 2. CNRS
UMR 5672 - Laboratoire de Physique, Ecole Normale Superieurede Lyon, Lyon, France; 3. Dipartimento di Fisica, Universita
degli Studi di Salerno and CNISM, Salerno, Italy

72

PROGRAMPROGRAM

9:36

10:48

CG-02. Bose-Einstein condensation of magnons in nanostructures.
L.H. Bennett1,2, E. Della Torre1,2, P.R. Johnson2 andR.E. Watson31. ECE, George Washington University, Ashburn,
MD, USA; 2. National Institute of Standards and Technology,
Gaithersburg, MD, USA; 3. Brookhaven National Laboratory,
Upton, NY, USA

9:48

CG-03. Finite-size Nanoscaling of the Critical Temperatures of
Ferromagnets with Variable Range of Interactions. R.F. Willis1,
M.G. Birke1, T.S. Bramfeld1 and K.R. Podolak11. Physics, The
Pennyslvania State University, University Park, PA, USA

10:00

CG-04. Temporal magnetic fluctuations measured with X-ray photon
correlation spectroscopy. S. Konings1, C. SchüsslerLangeheine2, H. Ott2, E. Weschke3, E. Schierle3 and
J. Goedkoop11. van der Waals - Zeeman Institute, University of
Amsterdam, Amsterdam, NH, Netherlands; 2. II. Physikalisches
Institut, Universität zu Köln, Cologne, NW, Germany; 3. Institut
fur Experimentalphysik, Freie universität Berlin, Berlin, BE,
Germany73

CG-08. Neutron Diffraction Analysis of Magnetic Ordering In
YSr2RuCu2O8. W.B. Yelon1,2, Q. Cai2, H.A. Blackstead3,
M. Kornecki3, V. Awana4, H. Kishan4, S. Balamurugan5 andE. Takayama-Muromachi51. Materials Research, University ofMissouri-Rolla, Rolla, MO, USA; 2. Department of Physics,
University of Missouri, Columbia, MO, USA; 3. Department of
Physics, University of Notre Dame, Notre Dame, IN, USA; 4.
National Physical Lab, New Delhi, India; 5. SMC, NIMS,
Tsukuba, Ibaraki, Japan

11:00

CG-09. Magnetic Instabilities along the Superconducting Phase
Boundary of Nb/Ni Multilayers. A.G. Joshi1, S.A. Kryukov1,
L.E. De Long1, E.M. Gonzalez2, E. Navarro2, J.E. Villegas2 and
J.L. Vicent21. Physics and Astronomy, University of Kentucky,
Lexington, KY, USA; 2. Fisica de Materiales, Universidad
Complutense, 28040 Madrid, Spain

11:12

CG-10. Direct measurement of spin diffusion length in a mesoscopic
superconductor. N. Poli1, M. Urech1, V. Korenivski1 and
D.B. Haviland11. Nanostructure Physics, Royal Institute ofTechnology, Stockholm, Sweden

10:12
11:24
CG-05. Electronic Raman scattering in magnetite: evidence for the
charge gap. L. Gasparov1, G. Guntherodt2, K. Choi2, H. Berger3,
L. Forro3 and G. Margaritondo31. Chemistry and Physics,
University of North Florida, Jacksonville, FL, USA; 2. II
Physikalisches Institut, RWTH Aachen, Aachen, Germany; 3.
EPFL, Lausanne, Switzerland

CG-11. Pattern formation in type-I superconducting films. J. Vincent1,
G. Catherine1, C. Andrejs2 and T. Okada31. CNRS, Univ. Paris 6,
INSP, Paris, France; 2. Institute of Physics, University of Latvia,
Salaspils-I, Riga, Latvia; 3. Laser Spectroscopy Laboratory,
Osaka University, Osaka, Japan

10:24
11:36
CG-06. Ultrafast kinetics of magnetic phase transition in HoFeO3
A.V. Kimel1, P.A. Usachev2, R.V. Pisarev2, A. Kirilyuk1 andT. Rasing11. Radboud University Nijmegen, Nijmegen,
Netherlands; 2. Ioffe Physical Technical institute, St. Petersburg,
Russian Federation

CG-12. All MgB2 superconductor based on Josephson junction with
Al2O3 or MgO tunnel barriers. H. Shim1, K. Yoon1 andJ.S. Moodera11. Francis Bitter Magnet Laboratory, Massachusetts
Institute of Technology, Cambridge, MA, USA

10:36
11:48
CG-07. Magnetic configurations of hybrid ferromagnetic
dot–superconductor systems. V. Pokrovsky1, K. Romanov1 andH. Wei11. Physics Department, Texas A&M University, College
Station, TX, USA

CG-13. Flux rotation and dimensional crossover in La1.85Sr0.15CuO4
Y. Bruckental1, A. Shaulov1 and Y. Yeshurun11. Physics, Bar Ilan
University, Ramat Gan, Israel

74

PROGRAMTUESDAY
MORNING
9:00

PROGRAM

DOVER

Session CH

MOLECULAR MAGNETIC MATERIALS

75

10:00
CH-06. An ab initio Investigation on the Endohedral Metallofullerene
Gd3N@C80 M. Qian1, S.V. Ong1 and S.N. Khanna11. Departmentof Physics, Virginia Commonwealth University, Richmond, VA,
USA

Kyungwha Park, Session Chair
10:12
9:00
CH-01. Magnetization and EPR studies of the single molecule magnet
Ni4 with integrated sensors. G. de Loubens1, G.D. Chaves1,
A.D. Kent1, C. Ramsey2, E. del Barco2, C. Beedle3 andD.N. Hendrickson31. Physics, New York University, New York, NY,
USA; 2. Physics, University of Central Florida, Orlando, FL,
USA; 3. Chemistry and Biochemistry, University of California
San Diego, La Jolla, CA, USA
9:12
CH-02. Raman Scattering Study of Mn12-acetate and related single
molecule magnets. R. Furstenberg1, C. Kendziora1 andJ. Macossay-Torres21. Naval Research Laboratory, Washington,
DC, USA; 2. Chemistry, University of Texas Pan American,
Edinburg, TX, USA
9:24
CH-03. Single-electron transport through Mn12 single-moleculemagnets. J.J. Henderson1, C.M. Ramsey1, E. del Barco1,
A. Mishra3 and G. Christou31. Physics, University of Central
Florida, Orlando, FL, USA; 2. Nanoscience Technology Center,
University of Central Florida, Orlando, FL, USA; 3. Chemistry,
University of Florida, Gainesville, FL, USA
9:36
CH-04. Concentration Dependence of Fe8 as a Magnetic ResonanceImaging Contrast Agent: A Cautionary Note. B. Cage1,
S. Russek1, R. Shoemaker2, A. Barker2, C. Stoldt2,
V. Ramachandarin3 and N. Dalal31. National Institute ofStandards and Technology, Boulder, CO, USA; 2. University ofColorado, Boulder, CO, USA; 3. Florida State University,
Tallahassee, FL, USA
9:48
CH-05. Spin-Phonon Relaxation in the Fe8 Single-Molecule Magnet
Induced by High-Intensity Pulsed Millimeter Wave Radiation.
M. Bal1, N. Schmandt1, J.R. Friedman1, M.T. Tuominen2,
W. Chen3, E.M. Rumberger4 and D.N. Hendrickson41.
Department of Physics, Amherst College, Amherst, MA, USA; 2.
Physics Department, University of Massachusetts, Amherst, MA,
USA; 3. Physics Department, Stony Brook University, Stony
Brook, NY, USA; 4. Department of Chemistry and Biochemistry,
University of California at San Diego, La Jolla, CA, USA

CH-07. Ferromagnetism in carbon-based material. W. Lin1, K. Xue2,
S. Chen2, R. Wei2 and H. Sang11. National Laboratory of Solid
State Microstructures, Nanjing University, Nanjing, China; 2.
Department of Chemistry, Nanjing Normal University, Nanjing,
China
10:24
CH-08. Magnetic properties of a non-interpenetrating chiral porous
Cobalt Metal-Organic Framewok (MOF). C. Yu1, S. Ma2,
M. Pechan1 and H. Zhou21. physics, miami unversity, oxford, OH,
USA; 2. Department of Chemistry & Biochemistry, Miami
University, Oxford, OH, USA
10:36
CH-09. Magnetic Properties of Polyaniline doped with Organic
Acceptors. I. Terry1, N. Zaidi1, S.R. Giblin2 and A.P. Monkman11.
Physics, Durham University, Durham, United Kingdom; 2. ISIS,
Rutherford Appleton Laboratory, Oxford, United Kingdom
10:48
CH-10. Photo-induced charge transfer phase transition in magnetic
material of cesium manganese hexacyanoferrate.
T. Matsuda1,2, H. Tokoro1,2, K. Hashimoto2 and S. Ohkoshi1,21.
Department of Chemistry, School of Science, The University ofTokyo, Tokyo, Japan; 2. Department of Applied Chemistry, Schoolof Engineering, The University of Tokyo, Tokyo, Japan
11:00
CH-11. Electrical Properties of the Interface between Pentacene andPermalloy Films. T. Kim1, N. Lee1, J.H. Lee2, A. Babajayan3,
K. Lee3, E. Lim4 and M. Iwamoto41. Physics, Ewha Womans
University, Seoul, South Korea; 2. Microgate Inc., Anyang, South
Korea; 3. Physics, Sogang University, Seoul, South Korea; 4.
Physical Electronics, Tokyo Institute of Technology, Tokyo, Japan
11:12
CH-12. Magnetic Properties of a Novel Fe(II) meso-tetra(4pyridyl)porphyrin Network. D. Danilovic1, T. Yuen1, C. Lin1,
L. Pan2 and J. Li21. Physics, Temple University, Philadelphia, PA,
USA; 2. Chemistry & Chemical Biology, Rutgers University,
Piscataway, NJ, USA

76

PROGRAMPROGRAM

11:24

CP-05. Effects of CoFe insertion layer on perpendicular exchange
bias characteristics in [Pd/Co]x5/FeMn bi-layered thin films.
S. Kim1, S. Bae1, L. Lin1, H. Joo2, D. Hwang2 and S. Lee21.
Biomagnetics Lab., Department of Electrical and Computer
Engineering, National University of Singapore, Singapore
117576, Singapore; 2. Nano Bio Lab., Department of Applied
Physics and Electronics, Sangji University, Wonjoo, Gangwon,
South Korea

CH-13. Piezo- and thermo- switch investigation of the spin crossovercompound [Fe(PM-BiA)2(NCS)2]. R. Tanasa1, E. Codjovi2,
J. Linares2, F. Varret2, A. Stancu1 and J. Letard31. Faculty ofPhysics & CARPATH, “Alexandru Ioan Cuza” University, Iasi,
Romania; 2. Groupe d’Etude de la Matiere Condensee (GEMaC),
Universite de Versailles, Versailles, France; 3. Groupe desSciences Moleculaires, Institut de Chimie de la Matiere
Condensee de Bordeaux, Bordeaux, France
11:36

CH-14. Magnetic Properties of Iron Oxalatophosphates with Layer
and Framework Structures. S. Lee1, T. Tsai1, C. Sheu2 andK. Lii2,31. Institute of Physics Academic Sinica, Taipei, Taiwan; 2.
Department of Chemistry, National Central University, Chungli,
Taiwan; 3. Institute of Chemistry, Academia Sinica, Taipei,
TaiwanTUESDAY
MORNING
8:00

GRAND BALLROOM

Session CP

EXCHANGE BIAS II(POSTER SESSION)
Dexin Wang, Session Chair
CP-01. The Onset of Exchange Bias in Epitaxial fct-Mn(001)/Co(001)
Bilayers. J.T. Kohlhepp1, H. Wieldraaijer1 and W. de Jonge11.
Applied Physics, Eindhoven University of Technology, Eindhoven,
Netherlands
CP-02. Field Cool Induced Perpendicular Exchange Bias in
FeMn/FeNi Multilayers. L. Sun1, H. Xing1, K. Keshoju1 andS. Zhou2,31. Department of Mechanical Engineering, Universityof Houston, Houston, TX, USA; 2. Department of Physics, Fudan
Univeristy, Shanghai, China; 3. Surface Physics Laboratory,
Fudan Univeristy, Shanghai, China
CP-03. Enhanced exchange bias in Fe/FexMn1-x bilayers by tuning the
crystalline structure through different substrates: fromCu(100) to Cu3Au(100). W.C. Lin1,2, W. Pan1, T. Chen1,2,
B. Wang1,2, L. Lin1, Y. Liao1,2, K. Song2 and M. Lin1,21. Physics,
National Taiwan University, Taipei, Taiwan; 2. Institute of Atomic
and Molecular Sciences, Academia Sinica, Taipei, Taiwan
CP-04. Rotational Hysteresis of the Anisotropy Direction in Co/FeMnThin Films. K. Liu1 and J. Olamit11. Physics Department,
University of California, Davis, CA, USA

77

CP-06. Asymmetric magnetization reversal of perpendicularexchange-biased (Co/Pt)/IrMn probed by magnetoresistanceand magnetic force microscopy. X. Ji1, A.B. Pakhomov1 andK.M. Krishnan11. Materials Science & Engineering, Univ. of
Washington, Seattle, WA, USA
CP-07. The role of the antiferromagnetic uncompensated spins in
exchange bias. I. Schmid1, P. Kappenberger1, M. ParlinskaWojtan1, M. Carrey3, O. Hellwig3, E.E. Fullerton3 and
H.J. Hug1,21. Laboratory for Nanoscale Materials Science, Empa,
Duebendorf, Switzerland; 2. Department of Physics, University ofBasel, Basel, Switzerland; 3. San Jose Research Center, Hitachi
Global Storage Technologies, San Jose, CA, USA
CP-08. Control over the vortex chirality in exchange-biased ellipticalmagnetic rings. W. Jung1, F.J. Castano1 and C.A. Ross11. DMSE,
M.I.T., Cambridge, MA, USA
CP-09. In-plane Correlation Length Scales in an Exchange Biased
Co/FeF2. S. Roy2, J.B. Kortright2, E. Blackburn1, S.K. Sinha1,
B.J. Kirby3, Z. Li1, R. Morales1, I.V. Roshchin1 andI.K. Schuller11. Dept. of Physics, University of California-San
Diego, La Jolla, CA, USA; 2. Materials Sciences Division,
Lawrence Berkeley National Laboratory, Berkeley, CA, USA; 3.
Manuel Lujan Neutron Scattering Center, Los Alamos National
Laboratory, Los Alamos, NM, USA
CP-10. Exchange-biased Co/Co(Mg)O bilayers with Co ferromagnet
grown above and below the diluted antiferromagnet Co(Mg)O.
T. Leo1, J. Hong3, A.E. Berkowitz3,4 and D.J. Smith1,21. School ofmaterials, Arizona State University, Tempe, AZ, USA; 2.
Department of Physics, Arizona State University, Tempe, AZ, USA;
3. Center for Magnetic Recording Research, University ofCalifornia - San Diego, La Jolla, CA, USA; 4. Department of
Physics, University of California - San Diego, La Jolla, CA, USA
CP-11. Positive Exchange Bias in GdFe/NiCoO Thin Films. J. Olamit1
and K. Liu11. Physics Department, University of California,
Davis, CA, USA
CP-12. Epitaxial growth and magnetic properties of Fe3O4/NiO
bilayers grown on MgO (001) substrate. S.K. Arora1, H. Wu1,
R.J. Choudhary1 and I.V. Shvets11. Centre for Adaptive
Nanostructures and Nanodevices (CRANN), School of Physics,
Trinity College Dublin, Dublin, Dublin, Ireland
CP-13. Magnetic anisotropy and exchange bias in epitaxial
CrO2/Cr2O3 bilayer thin films. S. Srinath1, N. Frey1,
H. Srikanth1, G. Miao2 and A. Gupta21. Department of Physics,
University of South Florida, Tampa, FL, USA; 2. MINT Center,
University of Alabama, Tuscaloosa, AL, USA

78

PROGRAMPROGRAM

CP-14. Exchange-biasing with biferroic YMnO3 Epitaxial Films.
V. Laukhin2,1, X. Martí1, F. Sánchez1, N. Dix1, D. Hrabrovsky1,
V. Skumryev2, M.V. García-Cuenca3, C. Ferrater3, M. Varela3,
U. Lüders4, J.F. Bobo4 and J. Fontcuberta11. Institut de Ciència deMaterials de Barcelona, CSIC, 08193, Bellaterra, Spain; 2.
Institut Català de Recerca i Estudis Avançats (ICREA),
Barcelona, Spain; 3. Física Aplicada i Òptica, Universitat deBarcelona, Diagonal 647, 08028, Barcelona, Spain; 4. LNMH,
CNRS-ONERA, BP 4025, 31055, Toulouse, France

CQ-05. Correlation Effect and Magnetic Moments in Cr2Te3 S. Youn1,
S. Kwon2 and B.I. Min21. Department of Physics Education,
Gyeongsang National University, Jinju, Gyungnam, South Korea;
2. Department of Physics, Pohang University of Science andTechnology, Pohang, Gyungbuk, South Korea

CP-15. Co nanoparticles epitaxially dispersed in a single crystal Co
matrix: analysis by magnetometry and torque measurements.
S. McCall2, I.H. Neumann3, E.S. Mushailov4, B.V. Vasiliev5,
D.J. Smith6 and A.E. Berkowitz11. Physics and CMRR, Universityof California-San Diego, La Jolla, CA, USA; 2. Chemistry &Materials Science, Lawrence Livermore National Laboratory,
Livermore, CA, USA; 3. Physics, University of California - Davis,
Davis, CA, USA; 4. Laboratory of Magnitodynamics, Kirensky
Institute of Physics, Krasnoyarsk, Russian Federation; 5.
Krasnoyarsk State Pedagogical University, Krasnoyarsk, RussianFederation; 6. Physics and Astronomy and Center for Solid State
Science, Arizona State University, Tempe, AZ, USA

TUESDAY
MORNING
8:00

GRAND BALLROOM

Session CQ

ELECTRONIC STRUCTURE I(POSTER SESSION)
Markus Eisenbach, Session Chair
CQ-01. Structural stability study of Ga(1-x)Mn(x)As alloys in alphaand beta- phases in first principles. M. Kim11. Physics, Seoul
National University, Seoul, South Korea
CQ-02. Band Structure and Matrix Elements Effects in L-edge
XMCD for Er2Fe17 Y. Lee1, B.N. Harmon1, A.I. Goldman1 andJ.C. Lang21. Ames Laboratory, Iowa State University, Ames, IA,
USA; 2. Advanced Photon Source, Argonne National Laboratory,
Argonne, IL, USA
CQ-03. Dichroism Soft X-ray Absorption Spectromicroscopy andAntiferromagnetic Surfaces and Interfaces. H. Ohldag1,
A. Scholl2, M. Liberati2, E. Arenholz2, S. Maat3 and J. Stöhr11.
SSRL, Stanford University, Menlo Park, CA, USA; 2. ALS,
Lawrence Berkeley National Laboratory, Berkeley, CA, USA; 3.
Hitachi Global Storage technologies, San Jose, CA, USA
CQ-04. Induced effects by the substitution of Mg in MgCNi3
G. Zhong1, J. Wang1,2, Z. Zeng1 and H. Lin21. Key Laboratory ofMaterials Physics, Institute of Solid State Physics, Chinese
Academy of Sciences, Hefei 230031, China; 2. Department of
Physics and Institute of Theoretical Physics, The Chinese
University of Hong Kong, Shatin, Hong Kong, China

79

CQ-06. First-principles study on the spin polarization of benzeneadsorbed on Fe(100) surface. X. Sun1,2, T. Suzuki1,
M. Kurahashi1, J. Zhang1,2 and Y. Yamauchi11. National Institutefor Materials Science, Tsukuba, Japan; 2. Department of Physics,
University of Science and Technology of China, Hefei, China
CQ-07. Valence states of Transition-metal Ions in Cubic Perovskites
SrMn1-xFexO3 H. Lee1, G. Kim1, J.H. Lee1, J.S. Kang1,
B. Dabrowski2, S.W. Han3, S.S. Lee3, C. Hwang3, M.C. Jung4,
H.J. Shin4, H.G. Lee4, J.Y. Kim4 and B.I. Min51. Department of
Physics, The Catholic Univ. of Korea, Bucheon, South Korea; 2.
Department of Physics, Northern Illinois University, Dekalb, IL,
USA; 3. Korea Research Institute of Standard and Science,
Daejon, South Korea; 4. Pohang Accelerator Laboratory, Pohang,South Korea; 5. Department of Physics, POSTECH, Pohang,South Korea
CQ-08. Low temperature Neutron diffraction studies showing
evidence for CE-type magnetic ordering in Mn doped
SrRuO3. B. Singh1, S.S. Manoharan1,2, R.K. Sahu2,3,
P.R. Krishnan4, A.B. Shinde4 and K. Jain51. Chemistry, Indian
Institute of Technology Kanpur, Kanpur, India; 2. Center for
Superconductivity, University of Maryland, Maryland, MD, USA;
3. National Metallurgical Laboratory, Jamshedpur, Jharkhand,India; 4. Solid State Physics Division, Bhabha Atomic ResearchCenter, Mumbai, Maharastra, India; 5. NanoScience center,
University of Cambridge, Cambrdige, United Kingdom
CQ-09. Surface Electronic Structure and Magnetism of NiAs
Structured MnAs(0001) and MnSb(0001). J. Lee1 andS. Hong21. Physics, Inha University, Incheon, South Korea; 2.
Physics, University of Ulsan, Ulsan, South Korea
CQ-10. Magnetism of Fe nano-structures on quasi one-dimentional
Cu(110)(2x1)-O substrate. M. Nagira1, N. Sawada2, K. Yaji1,
T. Ueno1, T. Moko1, A. Kimura1, H. Namatame2 and
M. Taniguchi1,21. Hiroshima University, Higashi-Hiroshima,
Japan; 2. Hiroshima Synchrotron Radiation Center, HigashiHiroshima, Japan
CQ-11. Electronic structures and magnetic properties of layered
compound RCrSb3 (R=La, Yb). H. Choi1, J. Shim1, S. Kwon1
and B. Min11. Physics, Pohang University of Science andTechology, Pohang, Kyungbook, South Korea
CQ-12. Ferromagnetic one dimensional Ti atomic chain. J. Hong11.
physics, Pukyong National University, Busan, South Korea
CQ-13. The effects of magnetic structure on displacements in fcc FeNi
alloys. Y.S. Puzyrev,1, M. Eisenbach1, D.M. Nicholson2,
G.M. Stocks1 and G.E. Ice11. Materials Science and Technology
Division, Oak Ridge National Laboratory, Oak RIdge, TN, USA;
2. Computer Science and Mathematics Division, Oak Ridge
National Laboratory, Oak RIdge, TN, USA

80

PROGRAMPROGRAM

CQ-14. MAGNETISM IN GOLD NANO-CLUSTERS. R.J. Magyar1,
C. Gonzalez2 and M. Marquez31. INEST Group, Gaithersburg,
MD, USA; 2. Center for Nanoscience, NIST, Gaithersburg, MD,
USA; 3. PM USA, Richmond, VA, USA

CR-06. The straining effect on tunneling magnetoresistance inexchange biased Co/AlOx/Co/IrMn and CoFeB/AlOx/Co/IrMnjunctions. S.U. Jen1, Y.T. Chen1,2, W.C. Chen1,3, Y.D. Yao1,
J.M. Wu2 and W.C. Cheng31. Institute of Physics, Academia
Sinica, Taipei, Taiwan; 2. Department of Materials Science andEngineering, National Tsing Hua University, Hsinchu, Taiwan; 3.
Department of Mechanical Engineering, National Taiwan
University of Science and Technology, Taipei, Taiwan

CQ-15. Antiferromagnetic fluctuations in the quantum phasetransition of the one-dimensional electron system. N. Tomita11.
Physics, Yamagata University, Yamagata, Yamagata, Japan

CQ-16. Electronic Structure in Polycrystalline La0.7Ca0.3MnO3-δ
J. Park1, Y. Lee1 and Y. Lee21. Quantum Photonic Science
Research Center, Seoul, South Korea; 2. Hanbat Univ., Daejon,
South Korea

TUESDAY
MORNING
8:00

GRAND BALLROOM

Session CR

MAGNETIC TUNNEL JUNCTIONS II(POSTER SESSION)
Janusz Nowak, Session Chair
CR-01. Surface scanning tunneling spectroscopy of ultra-thin MgOtunnel barriers. J. Read1, P. Mather2 and R. Buhrman11. Appliedand Engineering Physics, Cornell University, Ithaca, NY, USA; 2.
Freescale Semiconductor, Chandler, AZ, USA

CR-02. 80% TMR at room temperature for thin Al-O barriermagnetic tunnel junction with CoFeB as free and reference
layers. H. Wei1, Q. Qin1, M. Ma1 and X. Han11. Institute ofPhysics CAS, Beijing, Beijing, China

CR-03. Annealing temperature dependence of tunneling spectroscopy
in CoFeB/MgO/CoFeB magnetic tunnel junctions. Y. Ando1,
T. Miyakoshi1, T. Daibou1, M. Oogane1 and T. Miyazaki11.
Department of Applied Physics, Graduate School of Engineering,Tohoku University, Sendai, Miyagi, Japan81

CR-07. Magnetic and structural investigation of epitaxial
Fe3O4/MgO/Fe3O4 magnetic tunnel junctions. H. Wu1,
S. Arora1, I. Shvets1, A. Boger2, M. Opel2 and W. Kaiser21. Centre
for Reseacrh on Adaptive Nanostructures and Nanodevices(CRANN), School of Physics, Trinity College Dublin, Dublin 2,
Ireland; 2. Walther Meissner Institute, Bavarian Academy of
Science, D-85748 Garching, Germany

CR-08. Temperature dependence of tunnel resistance for
CoFeB/MgO/CoFeB magnetoresistive tunneling junctions: therole of magnon. S. Ikegawa1, H. Aikawa1, T. Ueda1, K. Hosotani2,
M. Nagamine1, N. Shimomura1, M. Yoshikawa1 and H. Yoda1,21.
Advanced LSI Technology Lab., TOSHIBA R & D Center,kawasaki, Kanagawa, Japan; 2. Center for Semiconductor R & D,
TOSHIBA Semiconductor Company, Yokohama, Kangawa, Japan

CR-09. Microstructure and magnetoresistance of MgO thin film with
CoFeB and CoFeC underlayers. C. Chou1, Y. Yao2, P. Kuo1,
K. Cheng2 and C. Yu21. Materials Science and Engineering,
National Taiwan University, Taipei, Taiwan; 2. Institute ofPhysics, Academia Sinica, Taipei, Taiwan

CR-10. MgO based magnetic tunnel junctions deposited using a hightarget utilisation sputtering system. N.P. Aley1, S. Ladak1 andK. O’Grady11. Physics, University of York, York, Yorks, United
Kingdom

CR-11. Tunneling magnetoresistance in exchange biased
CoFeB/AlOx/Co/IrMn junctions. Y. Chen1,2, S.U. Jen1, Y.D. Yao1,
J.M. Wu2, J.H. Liao2 and T.B. Wu21. Instiute of physics, Academia
sinica, Taipei, Taiwan; 2. Department of Materials Science andEngineering, National Tsing Hua University, Hsinchu, Taiwan

CR-04. Effects of exchange coupling on the low frequency noise of
MgO-based magnetic tunnel junction sensors. X. Liu1,2,
B.D. Schrag1,2, D. Mazumdar2, W. Shen2 and G. Xiao21. Micro
Magnetics Inc, Fall River, MA, USA; 2. Physics Dept, Brown
Univ, Providence, RI, USA

CR-12. Magnetoresistance inFe(30nm)/Fe3O4(3nm)/MgO(2nm)/Fe(30nm) Grown on
MgO(001). C. Yang1, K. Kuo1, C.Y. Wang1, G. Chern1, L. Horng2
and J.C. Wu21. SPIN Research Center and Physics Department,
National Chung Cheng University, Chia-Yi, Taiwan; 2. SPIN
Research Center and Department of Physics, National Changhua
University of Education, Changhua, Changhua, Taiwan

CR-05. Structural analysis of the CoFeB thin film in Ru/CoFeB andMgO/CoFeB multilayers. D. Kim1, J. Bae1,2, W. Lim1, K. Kim2,
T. Kim2 and T. Lee11. Department of Materials Science andEngineering, KAIST, Daejeon, South Korea; 2. Device Lab., SAIT,
Suwon, South Korea

CR-13. Rapid Thermal Treatment Effect on Patterned CoFeB-based
Magnetic Tunneling Junctions. K. Wu1, Y. Wang2, M. Tsai2,
J. Wu1 and L. Horng11. Department of Physics, National
Changhua University of Education, Changhua, Taiwan; 2.
Industrial Technology Research Institute, Hsinchu, Taiwan

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CR-14. Spin polarized tunnelling in hybrid single crystalpolycrystalline magnetic tunnel junctions. F. Greullet1,
C.V. TIUSAN1, M. Hehn1, F. Montaigne1, G. Lengaigne1,
M. Alnot1, C. Bellouard1 and D. Lacour11. Nancy University,
CNRS, Institut de Physique des Materiaux, Vandoeuvre les Nancy,
Lorraine, France

CS-04. Permeability of submicron and nanometer ferromangetic
particle composites. Y. Shimada1, G.W. Qin1, M. Yamaguchi1,
S. Okamoto2, O. Kitakami2 and K. Oikawa31. Electrical andCommunication Engineering, Tohoku University, Sendai, Miyagiken, Japan; 2. Institute of Multidisciplinary Research for
Advanced Materials, Tohoku University, Sendai, Miyagi-ken,
Japan; 3. Metallurgy, Tohoku University, Sendai, Miyagi-ken,Japan

CR-15. Effect of Ta getter on the quality of MgO barrier in thepolycrystalline CoFeB/MgO/CoFeB magnetic tunnel junction.
Y. Choi1, Y. Nagamine1, K. Tsunekawa1, H. Maehara1,
D.D. Djayaprawira1, S. Yuasa2 and K. Ando21. Electron Device
Equipment Division, Canon Anelva Corporation, Fuchu-shi,
Tokyo, Japan; 2. Nanoelectronic Research Institute, National
Institute of Advanced Industrial Science and Technology, Tsukuba,
Ibaraki, JapanTUESDAY
MORNING
8:00

GRAND BALLROOM

83

CS-05. Ultra-high-resistivity nano-granular Co-Al-O films for highfrequency applications. P. Khalili Amiri1, Y. Zhuang1,
H. Schellevis2, Y. Ma1, B. Rejaei1, M. Vroubel1 andJ.N. Burghartz3,11. HiTeC/DIMES, Delft University of Technology,
Delft, Netherlands; 2. ECTM/DIMES, Delft University ofTechnology, Delft, Netherlands; 3. Institute for Microelectronics
Stuttgart, Stuttgart, Germany
CS-06. Crystallographic and Mössbauer studies of Li0.5Fe2.5O4
prepared by HTTD and sol-gel methods. S. Hyun1 andC. Kim11. Physics, Kookmin University, Seoul, South Korea
CS-07. Effects of bismuth substitution on Tb3-xBixFe5O12 I. Park1 andC. Kim11. Physics, Kookmin University, Seoul, South Korea

Session CS

FERRITES, GARNETS, PARTICLES ANDCOMPOSITES(POSTER SESSION)
Leonard Spinu, Session Chair
CS-01. MAGNETIC STUDIES Of BixY3-xFe5O12 FABRICATEDUSING MECHANOCHEMICAL PROCESS. M. Niyaifar1,
R. Ramani1, M. Radhakrishna1, A. Hassanpour2, M. Mozaffari2,
J. Amighian2 and D. Das31. Physics, Bangalore University,
Bangalore, Karnataka, India; 2. Physics, Isfahan University,
Isfahan, Isfahan, Iran; 3. UGC-DAE Consortium, Kolkata center,
Kolkata, Kolkata, India

CS-02. Microwave electromagnetic and absorption properties of
Nd2Fe14B/α-Fe nanocomposites in 0.5-18 and 26.5-40GHz
range. L. Lian1, L. Deng1 and S. Feng11. University of Electronic
Science and Technology of China, State Key Laboratory ofElectronic Thin Film and Integrated Devices, Chengdu, Sichuan,
China

CS-03. Detection of low temperature Spin glass transition in rareearth substituted magnetite ferrofluids: Ac-susceptibility
study. R.V. Upadhyay1,2, K. Parekh1, V. Strom1, K.V. Rao1,
A. Banerjee3, K. Kumar3, R. Desai2 and R. Patel21. Materials
Science –Tmfy-MSE, Royal Institute of Technology, Stockholm,
Sweden; 2. Department of Physics, Center for Excellence in
Nanotechnology of Nanomagnetic Particles (GUJCOST),
Bhavnagar University, Bhavnagar, Gujarat, India; 3. UGC-DAE
Consortium for Scientific Research, University Campus, Khandwa
Road, Indore, India

CS-08. Effects of cation distribution for AFeO3 (A = Ga, Al). J. We1,
S. Kim1 and C. Kim11. physics, kookmin University, seoul, South
Korea
CS-09. Magnetic Properties of Nanoparticles of CoxFe(3-x)O4(0.05≤x≤1.6) Prepared by Combustion Reaction Process.
A.J. Franco1, V. Zapf2 and P. Egan2,31. Matematica e Fisica,
Universidade Catolica de Goias, Goiania-GO, Goias, Brazil; 2.
National High Magnetic Field Laboratory, Los Alamos
Laboratory, Los Alamos, NM, USA; 3. Physics, Oklahoma State
University, Stillwater, OK, USA
CS-10. Control of the cation occupancies of MnZn ferrite synthesized
via reverse micelles. M.J. Allsbrook1, E.E. Carpenter1 and
M.D. Shultz11. Department of Chemistry, Virginia Commonwealth
University, Richmond, VA, USA
CS-11. The influence of Cobalt Population on the Structural
Properties of CoxFe3-xO4 F. Nakagomi1, S.W. Silva1, A.J. Franco2,
E.C. de Lima3, V.K. Carg1 and P.C. Morais11. Instituto de Física,
Universidade Nacional de Brasilia, Brasilia, DF, Brazil; 2.
Matematica e Fisica, Universidade Catolica de Goias, GoianiaGO, Goias, Brazil; 3. Instituto de Química, Universidade Federal
de Goias, Goiania, GO, Brazil
CS-12. PERFECT ENCAPSULATION OF MAGNETIC METALPARTICLES WITH FERRITE LAYER IN AQUEOUS
SOLUTION USING INDUCTION HEATING. N. Matsushita1,
T. Watanabe1, Y. Kato1, M. Abe2 and M. Yoshimura11. Materials
and Structures Laboratory, Tokyo Institute of Technology,
Yokohama, Japan; 2. Dept. of Physical Electronics, Tokyo Instituteof Technology, Meguro, Tokyo, Japan

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CS-13. Pulsed laser ablation deposition of nanocrystalline exchangecoupled Ni11Co11Fe66Zr7B4Cu1 films for planar inductor
applications. A.K. Baraskar2, S.D. Yoon1, A. Geiler1, A. Yang1,
C.N. Chinnasamy1, Y. Chen1, N. Sun1,2, C. Vittoria1,2,
R. Goswami3, M. Willard3 and V.G. Harris1,21. Center for
Microwave Magnetic Materials and Integrated Circuits,
Northeastern University, Boston, MA, USA; 2. Electrical andComputer Engineering, Northeastern University, Boston, MA,
USA; 3. Naval Research Laboratory, Washington, DC, USA

CT-05. Modelling of Hysteresis in Multidomain Magnetic
Nanostructures. E. Cardelli1, M. Carpentieri2 and A. Faba1,21.
Dept. of Industrial Engineering, University of Perugia, Perugia,
Italy; 2. Polo Scientifico Didattico, University of Perugia, Terni,
Italy

CS-14. Reduced Magnetization in Magnetic Oxide Nanoparticles.
T. Kim1 and M. Shima11. Department of Materials Science andEngineering, Rensselaer Polytechnic Institute, Troy, NY, USA
CS-15. Size Dependent Magnetic Properties and Cation Inversion in
Chemically Synthesized MnFe2O4 Nanoparticles. V.G. Harris1,
C. Chinnasamy1, H. Kaileen1, S.D. Yoon1, A. Yang1, M.D. Shultz2,
E.E. Carpenter2, C. Vittoria1 and S. Mukerjee31.
Electrical&Computer Engineering, Northeastern University,
Boston, MA, USA; 2. Dept. of Chemistry, Virginia Commonwealth
University, Richmond, VA, USA; 3. Department of Chemistry andChemical Biology, Northeastern University, Boston, MA, USA

TUESDAY
MORNING
8:00

GRAND BALLROOM

Session CT

HYSTERESIS MODELING AND CONTINUUM
METHODS(POSTER SESSION)
Amr Adly, Session Chair
CT-01. Efficient Implementation of Anisotropic Vector Preisach-Type
Models Using Coupled Step Functions. A. Adly1 and S. Abd-ElHafiz21. Elect. Power & Machines Dept., Cairo University, Giza,
Egypt; 2. Engineering Mathematics Dept., Cairo University, Giza,
Egypt
CT-02. A Macroscopic Differential Preisach Model for
Matlab/Simulink. L.A. de Almeida1, C.C. Aguiar1 and
R.A. Travi11. Department of Electrical Engineering, Universidade
Federal da Bahia, Salvador, BAHIA, Brazil
CT-03. Preisach model for systems with asymmetric FORC
distributions. A. Stancu1, B. Negulescu1 and R. Tanasa11. Facultyof Physics & CARPATH, “Alexandru Ioan Cuza” University, Iasi,
Romania
CT-04. Generalization and Identification of Three-Dimensional
Isotropic Vector hysteresis Models Represented by theSuperposition of Stop and Play Models. T. Matsuo1 and
M. Shimasaki11. Dept. of Engineering, Kyoto University, Kyoto,
Japan

85

CT-06. Percolation, universality and fractal geometry of magnetic
domains in thin FePt/MgO and FePt/Pt layers. J. Attané1,
A. Marty1, M. Tissier2, Y. Samson1, H. Durand1, A. Mougin3 andJ. Jamet31. DRFMC/SP2M, CEA Grenoble, Grenoble, France; 2.
LPTMC, Univ. Paris VI, Paris, France; 3. LPS, Univ Paris-Sud,
Orsay, France

CT-07. Z-Transform Based FDTD Analysis of Perfectly Conducting
Cylinder Covered with Unmagnetized Plasma. M. Yan1,
K. Shao1, X. Hu1, Y. Guo2, J. Zhu2 and J. Lavers31. Dept. ofElectrical Engineering, HUST, Wuhan, Hubei, China; 2. The
faculty of Engineering, University of Technology, Sydney, NSW,
Australia; 3. Dept. of E & C Engineering, University of Toronto,
Toronto, ON, Canada

CT-08. FEM Analysis of Conduction Noise Attenuation by Magnetic
Composite Sheets on Microstrip Line. S. Kim1, G. Ryu1,
S. Kim1, J. Jeong1 and S. Kim11. Department of Materials
Engineering, Chungbuk National University, Cheongju, South
Korea

CT-09. Large-scale Magnetic Field Analysis of Laminated Core by
Using the Hybrid Finite Element and Boundary Element
Method Combined with the Fast Multipole Method.
Y. Takahashi1, S. Wakao1, K. Fujiwara2 and S. Fujino31.
Department of Electrical Engineering and Bioscience, Waseda
University, Tokyo, Japan; 2. Department of Electrical andElectronic Engineering, Okayama University, Okayama, Japan; 3.
Computing and Communications Center, Kyushu University,
Fukuoka, Japan

CT-10. Numerical Techniques for Spin-Waves Absorption based on
different site-dependent damping functions. G. Consolo1,
L. Lopez-Diaz2, L. Torres2 and B. Azzerboni11. Fisica della
Materia e Tecnologie Fisiche Avanzate, University of Messina,
Italy, Messina, Italy; 2. Fisica Aplicada, University of Salamanca,
Salamanca, Spain

CT-11. Temperature Dependence of the Magnetostatic Interactions in
Ferromagnetic nanowires systems. V. Goian1, I. Astefanoaei1,
I. Dumitru1, L. Spinu2 and A. Stancu11. Department of Solid Stateand Theoretical Physics, University Al. I. Cuza, Iasi, Romania; 2.
Advanced Materials Research Institute and Department of
Physics, University of New Orleans, New Orleans, LA, USA

CT-12. Solution to the Problem of Axisymmetric Hidden Defect using
Eigenfunction Expansion Method. H. Bayani1 and I. Sasada11.
Applied Science for Electronics and Materials, Kyushu University,
Kasuga-Shi, Fukuoka, Japan

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CT-13. Ferrofluid shape formation based on electromagnetic bodyforce. H. Choi1, Y. Kim1 and I. Park11. School of Information andCommunication Engineering, Sungkyunkwan Univ., Suwon, South
Korea

CU-05. THE EFFECTS OF THE INTERACTION FIELDCOMPONENTS ON THE FERROMAGNETICRESONANCE CONDITION IN MAGNETIC NANOWIRESSYSTEMS. I. Dumitru1, A. Stancu1, D. Cimpoesu2 andL. Spinu31. Department of Solid State and Theoretical Physics,“Alexandru Ioan Cuza” University, Iasi, Iasi, Romania; 2.
Advanced Materials Research Institute, University of New
Orleans, New Orleans, LA, USA; 3. Department of Physics &Advanced Materials Research Institute, University of New
Orleans, New Orleans, LA, USA

CT-14. Magnetoelastic Deformation of Soft and Hard Magnetic
Materials using Virtual Airgap Scheme Generating theMagnetic Body Force. S. Lee1, H. Choi2 and I. Park21. Advanced
Power Apparatus Group, Korea Electrotechnology ResearchInstitute, Changwon, South Korea; 2. The school of Information
and Communication Engineering, Sungkyunkwan University,
Suwon, South Korea
CT-15. Finite element solution of Maxwell equations for cylindricalmagnetic microstructures. M. Barbagallo1, W.S. Lew1 andJ. Bland11. Physics, Cavendish Laboratory, University ofCambridge, JJ Thomson Avenue, Cambridge CB3 0HE, United
Kingdom

TUESDAY
MORNING
8:00

GRAND BALLROOM

Session CU

MICROMAGNETICS: APPLICATIONS I(POSTER SESSION)
Werner Scholz, Session Chair
CU-01. Micromagnetic simulation of the (α-Fe/TbFe2)nmagnetostrictive multilayers. T. Rujun1, P. Bin1, Z. Wenxu1,
J. Hongchuan1 and Z. Wanli11. University of Electronic Scienceand Technology of China, Chengdu, China
CU-02. Vortex Core Dynamics in Submicron Ferromagnetic Disks.
Q.F. Xiao1, B. Choi1, J. Rudge1, Y.K. Hong2 and G. Donohoe31.
Dept. of Physics & Astronomy, University of Victoria, Victoria,
BC, Canada; 2. Dept. of Electrical & Computer Engineering,
University of Alabama, Tuscaloosa, AL, USA; 3. Dept. ofElectrical & Computer Engineering, University of Idaho,
Moscow, ID, USA

87

CU-06. Evolution of magnetization from the vortex state in soft
magnetic square platelets. M. Wolf1, U.K. Rossler1 and
R. Schäfer11. IFW Dresden, Dresden, Germany

CU-07. Micromagnetic simulation for detection of ac field focusedmagnetic labels by spin-valve sensors. Z. Hou1 and Y. Liu11.
Department of Physics, Tongji University, ShangHai, China

CU-08. Magnetic states of ellipsoidal iron crystals encapsulated incarbon nanotubes. P. Barpanda1, T. Kasama2,3, K.K. Koziol3,
A.H. Windle3 and R.E. Dunin-Borkowski3,21. Materials Scienceand Engineering, Rutgers University, Piscataway, NJ, USA; 2.
Frontier Research System,, The Institute of Physical and Chemical
Research,, Hatoyama, Saitama,, Japan; 3. Materials Science andMetallurgy, University of Cambridge, Cambridge, United
Kingdom

CU-09. MICROMAGNETIC INVESTIGATION OF PRECESSIONDYNAMICS IN MAGNETIC NANOPILLARS.
M. Carpentieri1, G. Finocchio1, B. Azzerboni1, L. Torres2 and
L. Lopez-Diaz21. Fisica della Materia e Tecnologie Fisiche
Avanzate, University of Messina, Messina, Messina, Italy; 2.
Fisica Aplicada, University of Salamanca, Salamanca,
Salamanca, Spain

CU-10. Phase controls of spinwaves traveling along magnetic
nanowires using the Oersted fields. S. Kim1, K. Lee1 and
S. Choi11. Research Center for Spin Dynamics & Spin-Wave
Devices (ReC-SDSW) and Nanospintronics Laboratory, Seoul
National University, Seoul, South Korea

CU-03. Hotspots mediated spin-transfer switching in low resistancemagnetic tunnel junctions. Y. Zhang1, Z. Zhang1, Y. Liu2, B. Ma1
and Q. Jin11. Department of Optical Science and Engineering,
Fudan University, Shanghai, China; 2. Department of Physics,
Tongji University, Shanghai, China

CU-11. Micromagnetic Modeling of Magnetization Reversal in NanoPoint Contacts. G. Finocchio1, O. Ozatay2, L. Torres3,
M. Carpentieri1, G. Consolo1 and B. Azzerboni11. University ofMessina, Messina, Italy; 2. Cornell University, Ithaca 148532501., NY, USA; 3. Fisica Aplicada, Universidad de Salamanca,
Plaza de la Merced s/n 37008, Spain

CU-04. DYNAMICS OF SUPERPARAMAGNETIC ANDFERROMAGNETIC NANO-OBJECTS IN CONTINUOUSFLOW MICROFLUIDIC DEVICES. L. Clime1, B. Le Drogoff1
and T. Veres11. Industrial Material Institute, Montreal, QC,
CanadaCU-12. NUMERICAL ANALYSIS OF FAST SWITCHINGINDUCED BY SPIN POLARIZED CURRENT IN SPINVALVES. M. Carpentieri1, B. Azzerboni1 and A. Romeo11. Fisicadella Materia e Tecnologie Fisiche Avanzate, University ofMessina, Messina, Messina, Italy

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CU-13. Simulation of temperature effects in Magnetic Random Access
Memory. D. Cimpoesu1,2, A. Stancu2 and L. Spinu31. Advanced
Materials Research Institute (AMRI), University of New Orleans,
New Orleans, LA, USA; 2. Faculty of Physics and CARPATH, Al.
I. Cuza University, Iasi, Romania; 3. AMRI and Department of
Physics, University of New Orleans, New Orleans, LA, USA

CV-05. Micromagnetic study of the complex transverse susceptibilityof uniaxial ferromagnets with quartic anisotropy.
D. Cimpoesu1,2, A. Stancu2 and L. Spinu31. Advanced Materials
Research Institute (AMRI), University of New Orleans, New
Orleans, LA, USA; 2. Faculty of Physics and CARPATH, Al. I.
Cuza University, Iasi, Romania; 3. AMRI and Department of
Physics, University of New Orleans, New Orleans, LA, USA

CU-14. Micromagnetic simulations of nonlinear magnetization
dynamics in ultra-thin films subject to high power microwave
fields. M. d’Aquino1, G. Bertotti2, C. Serpico1, I.D. Mayergoyz3
and R. Bonin21. Dept. of Electrical Engineering, University of
Napoli, Napoli, Italy; 2. Istituto Nazionale di Ricerca Metrologica(INRIM), Torino, Italy; 3. ECE Department and UMIACS,
University of Maryland, College Park, MD, USA

TUESDAY
MORNING
8:00

GRAND BALLROOM

Session CV

MICROMAGNETICS: FUNDAMENTALASPECTS(POSTER SESSION)
Anthony Arrott, Session Chair
CV-01. SPICE Circuit Modeling of Anisotropic Magnetoresistive
Sensors with Second Harmonic (2f) Readout. H. Fardi1,
S.T. Halloran1,2, D.P. Pappas3, F.S. da Silva1 and E.W. Hill41.
Electrical Engineering, University of Colorado at Denver and
Health Sciences Center, Denver, CO, USA; 2. University ofColorado, Boulder, CO, USA; 3. National Institute of Standards
and Technology, Boulder, CO, USA; 4. University of Manchester,Manchester, United Kingdom

CV-02. A systematic approach to multiphysics extensions of finiteelement based micromagnetic simulations: nmag.
T. Fischbacher1, G. Bordignon1, M. Franchin1 and H. Fangohr11.
School of Engineering Sciences, University of Southampton,
Southampton, United Kingdom

CV-03. Micromagnetic study on thermally induced magnetization
reversal of a coupled spin chain system. X. Cheng1, M. Jalil1
and H. Lee21. Information storage material lab, National
University of Singapore, Singapore, Singapore; 2. Bioinformatics
Institute, Singapore, Singapore

CV-04. Order parameter profiles through a domain wall in twisted
Heisenberg models. A.D. Beath1 and D.H. Ryan11. Physics
Department and the Centre for the Physics of Materials, McGill
University, Montreal, QC, Canada

89

CV-06. Coherent rotation and effective anisotropy. G. Zhao1,2,
X. Wang2 and Y. Feng31. Institute of Solid State Physics, Sichuan
Normal University, Chengdu, Sichuan, China; 2. Institute forSuperconducting and Electronic Materials, University of
Wollongong,, Wollongong, NSW, Australia; 3. Department of
Physics, National University of Singapore, Singapore, Singapore

CV-07. Mode Anticipation Fields for Symmetry Breaking. A.S. Arrott1
and R. Hertel21. Simon Fraser University, Burnaby, BC, Canada;
2. Research Center Juelich, Juelich, Germany

CV-08. Three-dimensional magnetostatic computations using the Fast
Multipole Method. P. Andrei1 and A. Adedoyin11. Electrical andComputer Engineering, FAMU-FSU College of Engineering,
Tallahassee, FL, USA

CV-09. Fast semi-analytical time integration schemes for the LandauLifshitz equation. B. Van de Wiele1, F. Olyslager2 and L. Dupré11.
Department of Electrical Energy, Systems and Automation, Ghent
University, Ghent, Belgium; 2. Department of Information
Technology, Ghent University, Ghent, Belgium

CV-10. An improved finite differences magnetostatic scheme forconvex bodies. J.E. Miltat11. Lab. Physique des Solides, Univ.
Paris-Sud & CNRS, Orsay, France

CV-11. Superparamagnetic properties and ferromagnetic resonancefor magnetic nanoparticles assembly. D. Hasegawa1, T. Ogawa1
and M. Takahashi21. Electronic Engineering, Tohoku University,
Sendai, Miyagi, Japan; 2. New Industry Creation Hatchery
Center, Tohoku University, Sendai, Miyagi, Japan

CV-12. Analytical expressions for domain wall motion in nanowires ofrectangular cross section. C. Tristan1, L. Lopez-Diaz1, L. Torres1and E. Martinez21. Applied Physics, University of Salamanca,
Salamanca, Spain; 2. Electromechanic Engineering, University of
Burgos, Salamanca, Spain

CV-13. Effect of the Gilbert damping term on the current induced
magnetic switching of ring-shaped spin valve structure.
J. Guo1, M. Bin Abdul Jalil1 and S. Tan21. Electrical andComputer Engineering, National University of Singapore,
Singapore, Singapore; 2. Data Storage Institute, Singapore,
Singapore

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PROGRAMPROGRAM91

CV-14. Filtering effects arising from non-uniform distributions ofboth current density and polarization function in point
contact geometries. G. Consolo1, L. Torres2, L. Lopez-Diaz2 andB. Azzerboni11. Fisica della Materia e Tecnologie Fisiche
Avanzate, University of Messina, Italy, Messina, Italy; 2. Fisica
Aplicada, University of Salamanca, Salamanca, Spain

CW-06. Ferromagnetic resonance and microwave behavior of bulk
ASn-substituted (A=Ni,Co,Zn) BaM-hexaferrites. D. Lisiak1,
S. Perero2 and M. Pasquale21. Advanced Materials, Jozef Stefan
Institute, Ljubljana, Slovenia; 2. Materials, INRIM, Torino, Italy

CW-07. Intelligent phased array flat antenna system with magnetic
micro strip line phase shifter. H. Tsujimoto11. Electricalengineering, Osaka City University, Osaka, JapanTUESDAY
MORNING
8:00

GRAND BALLROOM

Session CWHIGH FREQUENCY MATERIALS AND
DEVICES(POSTER SESSION)
Weikang Shen, Session Co-chair
Yangki Hong, Session Co-chair
CW-01. Ferromagnetic films for loss reduction in on-chiptransmission lines. P. Khalili Amiri1, B. Rejaei1, Y. Zhuang1,
M. Vroubel1 and J.N. Burghartz2,11. HiTeC/DIMES, Delft
University of Technology, Delft, Netherlands; 2. Institute forMicroelectronics Stuttgart, Stuttgart, Germany
CW-02. Bifurcation Analysis of Parametric Interactions ofMagnetostatic and Electromagnetic Waves in Nonlinear 3D
Ferrite Structures. M. Pardavi-Horvath1, G.S. Makeeva2 andO.A. Golovanov31. ECE, The George Washington University,
Washington, DC, USA; 2. Penza State University, Penza, RussianFederation; 3. Penza Military Institute of Artillery, Penza,
Russian Federation
CW-03. Ferrite-Dielectric-Wire Composite Negative Index Materials.
F.J. Rachford1, D.N. Armstead2, V.G. Harris3 and C. Vittoria31.
Materials and Sensors Branch, Naval Research Laboratory,
washington, DC, USA; 2. Physics Department, The College of
Wooster, Wooster, OH, USA; 3. Department of Electrical andComputer Engineering, Northeastern University, Boston, MA,
USA
CW-04. Magnetic and Electric Field Tunable Ferrite-FerroelectricHybrid Wave Microwave Resonators. A. Ustinov1,
V. Tiberkevich1, A. Slavin1, G. Srinivasan1 and B. Kalinikos21.
Department of Physics, Oakland university, Rochester, MI, USA;
2. Department of Physical Electronics and Technology,
St.Petersburg Electrotechnical University, St.Petersburg, RussianFederation
CW-05. Observation of the Power-Dependent Switching of Microwave
Pulses in a Ferrite-Film Nonlinear Directional Coupler.
A.B. Ustinov1,2, M.A. Timofeeva2 and B.A. Kalinikos21.
Department of Physics, Oakland University, Rochester, MI, USA;
2. Department of Physical Electronics and Technology,
St.Petersburg Electrotechnical University “LETI”, SaintPetersburg, Russian Federation

CW-08. In-plane broadband circulator simulation for application at
X-band frequency. S. Yoon1, J. Wang1, N. Sun1, C. Vittoria1 and
V.G. Harris11. ECE, Northeastern University, Boston, MA, USA

CW-09. Refractive Index, Absorption Coefficient, Complex Real andImaginary Permittivity, and Loss Tangent Measurements of
Ferrimagnetic Materials at Millimeter Wave and Terahertz
Range. U.A. Khan1, N. Nguyen1 and M.N. Afsar11. Electricaland Computer Engineering, Tufts University, Medford, MA, USA

CW-10. Fabrication and demonstration of a near-field microwave
probe for local FMR characterization. D.I. Mircea1,2,
N.J. Gokemeijer1 and T.W. Clinton11. Seagate Research, Seagate
Technology, Pittsburgh, PA, USA; 2. Center for Superconductivity
Research, Department of Physics, University of Maryland,College Park, MD, USA

CW-11. High sensitivity type MI sensor applied to detect tiny steel
objects. H. Aoyama1, H. Arakawa1, Y. Honkura1, K. Arima2 andS. Suzuki21. Aichi Steel Corp., Tokai-shi, Aichi-ken, Japan; 2.
Advance Food Technology Co., LTD, Toyohashi-shi, Aichi-ken,
Japan

CW-12. Experimental demonstration of the influence of the magnetic
field non-uniformity on the X-band Y-junction circulator
bandwidth. A. Guennou1, P. Quéféllec1, P. Gelin1 and J. Mattei11.
LEST - UMR CNRS 6165, Brest cedex 3, France

CW-13. High power microwave effects on iron based microstrip filter.
B. Kuanr1, Y. Khivintsev1,2, D. Hatchinsom1, R.E. Camley1 and
Z.J. Celinski11. Physics, University of Colorado at Colorado
Springs, Colorado Springs, CO, USA; 2. Institute of RadioEngineering and Electronics, RAS, Saratov, 410019, RussianFederation

CW-14. Increasing operational frequency in microwave devices byusing [SmCo/NiFe] multilayered structures. B. Kuanr1, Y. Y.
Khivintsev1,2, I. Harward1, R.E. Camley1, Z.J. Celinski1,
M. Bedenbecker3 and H.H. Gatzen31. Physics, University ofColorado at Colorado Springs, Colorado Springs, CO, USA; 2.
Institute of Radio Engineering and Electronics, RAS, Saratov,
410019, Russian Federation; 3. Institut fuer Mikrotechnologie,
Leibniz Universitaet Hannover, Garbsen, 30823, Germany

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93

CW-15. Bias field effects on the low frequency and microwave
frequency behaviors of a PZT/YIG/GGG magnetoelectriccomposite. C. Pettiford1, S. Dasgupta1, S. Yoon1, V.G. Harris1,
C. Vittoria1 and N.X. Sun11. Northeastern University, Boston,
MA, USACX-07. Method for Measuring the Magnetic Properties of HighDensity Magnetic Composites under Compressive Stress.
N. Takahashi1, T. Imahashi1, M. Nakano1, D. Miyagi1,
T. Arakawa2, H. Nakai2 and S. Tajima21. Electrical and ElectronicEng., Okayama University, Okayama, Japan; 2. Toyota Central
R&D Labs., Inc., Nagakute, Aichi, JapanTUESDAY
MORNING
8:00

CX-08. MEASUREMENT OF THICKNESS OF NICKEL PLATEDSTEEL USING ELECTROMAGNETIC METHOD.
N. Takahashi1, Y. Gotoh2 and A. Matsuoka21. Electrical andElectronic Eng., Okayama University, Okayama, Japan; 2.
Electrical and Electronic Eng., Kurume National College ofTechnology, Kurume, Japan

GRAND BALLROOM

Session CX

INSTRUMENTATION AND MEASUREMENTTECHNIQUES II(POSTER SESSION)
Pallavi Dhagat, Session Co-chair
Jim Deak, Session Co-chair
CX-01. Magnetic Manipulation of Micro-cantilever for the New
Concept Atomic Force Microscopy. S. Lee1 and K. Jung21.
School of Mechanical Engineering, Andong National University,
Andong, South Korea; 2. Mechanical Engineering, Chungju
National University, Chungju, South Korea
CX-02. Enhanced longitudinal MOKE contrast in nanomagnetic
structures. U.J. Gibson1, D.A. Allwood2 and S. Basu21.
Engineering, Dartmouth College, Hanover, NH, USA; 2.
Engineering Materials, University of Sheffield, Sheffield, United
Kingdom
CX-03. Optical production of any orthogonal states of the linear andcircular polarization modes in the soft x-ray ranges using asimple magnetic thin-film structure. D. Jeong1, K. Lee1 andS. Kim11. Research Center for Spin Dynamics & Spin-Wave
Devices (ReC-SDSW) and Nanospintronics Laboratory, Seoul
National University, Seoul 151-744, South Korea
CX-04. Determination of complex magnetic structures from PNR
data by flexible modeling of depth dependent vector
magnetization. A.D. Mont1, S.M. Watson2, J.A. Borchers2 and
P.A. Kienzle21. U Maryland, College Park, MD, USA; 2. NIST,
Gaithersburg, MD, USA

CX-09. Evaluation of heterogeneous magnetic properties by singleyoke. H. Kikuchi1, H. Murakami1, K. Ara1, Y. Kamada1,
S. Kobayashi1 and S. Takahashi11. NDE & SRC, Faculty ofEngineering, Iwate University, Morioka, Iwate, Japan

CX-10. A new method for defining the mean path length of the
Epstein frame. P. Marketos1, S. Zurek1 and A.J. Moses11. Schoolof Engineering, Cardiff University, Cardiff, United Kingdom

CX-11. Finite Element Method (FEM) simulation of the space andtime distribution and frequency dependence of the magnetic
field density, and simulation of MAE in a ferritic steel plate.
M. Augustyniak1, B. Augustyniak1, M.J. Sablik2, M. Chmielewski1
and W. Sadowski11. Physics, Technical University of Gdansk,
Gdansk, Poland; 2. Sensor Systems and NDE Technology,
Southwest Research Institute, San Antonio, TX, USA

CX-12. A Method for Dynamic Simulation and Detection of BrokenRotor Bars in Three Phase Induction Motors. D. Hwang1,
S. Han1, D. Kang1, K. Choi2 and Y. Cho31. Industry Applications
Research Lab., Korea Electrotechnology Research Institute(KERI), Changwon, Gyeongnam, South Korea; 2. Kyungbuk
College, Youngju, Kyungbuk, South Korea; 3. Dong-A University,
Saha-gu, Busan, South Korea

CX-05. Experimental Determination of Demagnetizing Factors of
Disk Samples Magnetized Along a Diameter. C.D. Graham1 and
B.E. Lorenz21. Materials Science, Univ. of Pennsylvania,
Philadelphia, PA, USA; 2. Dept. of Electrical Engineering,
Widener University, Chester, PA, USA

CX-13. Examination to improve detection accuracy of the algorithm
for detecting cracks on distribution line. G. Owada1,
T. Nonaka2, F. Sato1, H. Matsuki1, T. Sato3 and S. Kanno41.
Graduate School of Engineering,Tohoku University, Sendai,
Japan; 2. Hachinohe National College of Technology, hachinohe,
Japan; 3. NEC TOKIN Corporation, Sendai, Japan; 4. x3 Projects
Co.Ltd., Sendai, Japan

CX-06. Magnetic non-destructive evaluation of bending fatigue
damage using the drag force method. L.P. Vandenbossche1,
I.J. Garshelis2,3, S.P. Tollens3, L.R. Dupre1 and P. Sergeant11.
Electrical Energy, Systems and Automation, Ghent University,
Gent, Belgium; 2. Magnova Inc., Pittsfield, MA, USA; 3.
MagCanica Inc., San Diego, CA, USA

CX-14. AN ACTIVE PELTIER CELL CALORIMETER WITH
POWER COMPENSATION FOR MEASURING THE
MAGNETOCALORIC EFFECT. M. Kuepferling1, C.P. Sasso1,
V. Basso1 and L. Giudici11. Materials Department, Istituto
Nazionale di Ricerca Metrologica, Torino, TO, Italy

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PROGRAMTUESDAY
AFTERNOON
2:00

PROGRAM

HARBORSIDE CTUESDAY
AFTERNOON
2:00

HARBORSIDE A

Session DA

Session DB

SYMPOSIUM ON RECENT ADVANCES IN
MODELING OF MAGNETIC AND SPINDEPENDENT PROPERTIESPATTERNED MEDIA

Oleg Mryasov, Session Chair

2:00

DA-01. Magnetoelectric coupling in multiferroic materials from firstprinciples. (Invited) C. Ederer1,21. Materials Department,
University of California, Santa Barbara, CA, USA; 2. Departmentof Physics, Columbia University, New York, NY, USA

2:36

DA-02. Spin-transport in organic and inorganic spin-valves. (Invited)
S. Sanvito11. Physics, Trinity College, Dublin, Ireland

3:12

DA-03. Magnetic impurity doping in semiconductor nanocrystals.
(Invited) S. Erwin11. Center for Computational Materials
Science, Naval Research Lab, Washington, DC, USA

3:48

DA-04. Role of Thermodynamic Fluctuations in Magnetic Recording.
(Invited) R. Skomski11. Department of Physics and Astronomy and
Nebraska Center for Materials and Nanoscience, University of
Nebraska, Lincoln, NE, USA

4:24

DA-05. The write process and thermal stability in bit-patterned
recording media. (Invited) M. Schabes11. Hitachi San Jose
Research Center, Hitachi Global Storage Technologies, San Jose,
CA, USA95

Hans Richter, Session Chair
2:00

DB-01. Alumina Nanohole Patterned Media for Tbit/in2 Recording.
(Invited) K. Itoh1,2 and H. Masuda3,41. Yamagata Fujitsu Ltd.,
Higashine, Yamagata, Japan; 2. Fujitsu Laboratories Ltd., Atsugi,
Kanagawa, Japan; 3. Tokyo Metropolitan University, Hachioji,
Tokyo, Japan; 4. Kanagawa Academy of Science and Technology,
Sagamihara, Kanagawa, Japan
2:36

DB-02. Dynamic write/read characteristics of alumina nanohole
patterned media with a soft underlayer measured with aperpendicular magnetic head. H. Oshima1,2, H. Kikuchi1,2,
H. Nakao1,2, T. Kamimura2, T. Morikawa2, K. Matsumoto2,
K. Nishio3,4, H. Masuda3,4 and K. Itoh1,21. Yamagata Fujitsu Ltd.,
Atsugi, Japan; 2. Fujitsu Laboratories Ltd., Atsugi, Japan; 3.
KAST, Sagamihara, Japan; 4. Tokyo Metropolitan Univ., Hachioji,
Japan
2:48

DB-03. CoPt Hard Magnet/Ni Soft Magnet Composite Nanowire
Arrays for Patterned Recording Media. A.I. Gapin1, X. Ye1,
L. Chen1, D. Hong1 and S. Jin11. Mechanical and Aerospace
Engineering, University of California San Diego, La Jolla, CA,
USA
3:00

DB-04. Self-assembly Nanoscale triangular-shaped Ni Dot arrays.
D. Niu1, Y. Zhai2, S. Lepadatu3, Y. Lu1, X. Zou3, J. Wu3 andY. Xu11. Department of Electronics, The University of York, York,
United Kingdom; 2. Department of Physics, Southeast University,
Nanjing, China; 3. Department of Physics, The University of York,York, United Kingdom
3:12

DB-05. Synthetic antiferromagnet for hard layer of exchange coupled
composite media. S. Hernandez1, M. Kapoor1 and
R.H. Victora11. Electrical and Computer Engineering, Universityof Minnesota, Minneapolis, MN, USA

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3:24

4:36

DB-06. Patterned Exchanged Coupled Composite Media. D.W. Coats2,
M. Hao1, X. Yao1, W. Shen1, J. Bai1 and J. Wang11. Univ. Of
Minnesota, Minneapolis,, MN, USA; 2. Physics, Harvey Mudd
College, Claremont, CA, USA

DB-12. The growth of L10 FePt thin films with (001) texture on Fe1001
11
1
1xRux underlayer. S. He , B. Ma , Z. Zhang , F. Gan and Q. Jin 1.
Department of Optical Science and Engineering, Fudan
University, Shanghai, China

3:36

4:48

DB-07. Magnetization Reversal in Patterned Media. V. Lomakin1,
B. Livshitz1 and . Bertram1,21. Center for Magnetic Recording
Research and Department of Electrical and Computer
Engineering, University of California, San Diego, La Jolla, CA,
USA; 2. Hitachi San Jose Research Center, Hitachi Global
Storage Technologies, San Jose, CA, USA

97

DB-13. Narrow switching field distributions in polycrystalline andepitaxial Co/Pd perpendicularly-magnetized nanopatterned
arrays. J.M. Shaw1, W.H. Rippard1, S. Russek1, T. Reith2 andC.M. Falco21. Magnetics Group, National Institute of Standards
and Technology, Boulder, CO, USA; 2. College of Optical
Sciences, University of Arizona, Tucson, AZ, USA

3:48

DB-08. Size dependent precessional dynamics in [Co/Pd]8 patterned
nanomagnet arrays. A. Barman1,3, S. Wang1, O. Hellwig2,
E. Dobisz2, D. Kercher2, E. Fullerton2 and H. Schmidt11. Schoolof Engineering, University of California Santa Cruz, Santa Cruz,
CA, USA; 2. Hitachi Global Storage Technologies, San Jose
Research Center, San Jose, CA, USA; 3. NanoCenter and Physics
and Astronomy, University of South Carolina, Columbia, SC, USA

TUESDAY
AFTERNOON
2:00

HARBORSIDE B

Session DC

EXCHANGE BIAS III
Jinshan Li, Session Chair

4:00
2:00
DB-09. Noise sources in patterned media. A. Moser1, T. Olson1,
O. Hellwig1, D. Kercher1 and E. Dobisz11. San Jose ResearchCenter, Hitachi Global Storage Technologies, San Jose, CA, USA

DC-01. Dynamics in exchange biased bilayers. (Invited) R. Stamps11.
Physics, University of Western Australia, Crawley, WA, Australia

4:12
2:36
DB-10. Fabrication of Flyable Perpendicular Discrete Track Media.
M.T. Moneck1, J. Zhu1, X. Che2, Y. Tang2, H. Lee2 andN. Takahashi31. Electrical & Computer Engineering, Carnegie
Mellon University, Pittsburgh, PA, USA; 2. Samsung Information
Systems America, San Jose, CA, USA; 3. Fuji Electric Advanced
Technology Co. Ltd., Nagano, Japan

DC-02. A model of the magnetic properties of coupled
Ferromagnetic/Antiferromagnetic bilayers. D.B. Choo1,
R.W. Chantrell2, R. Lamberton1, A. Johnston1 and K. O’Grady21.
R&D, Seagate Technology Ireland, Londonderry, United
Kingdom; 2. Physics Department, University of York, York, United
Kingdom

4:24
2:48
DB-11. Hard Mask Fabrication for Patterning Ultra-High Bit
Densities by Large-Area Electron Beam Lithography.
C. Fabrie1, J. Kohlhepp1, H. Swagten1, B. Koopmans1,
M. Andriesse2 and E. van der Drift21. Applied Physics, TU/e,
Eindhoven, Noord-Brabant, Netherlands; 2. Kavli Institute, TUD,
Delft, Zuid-Holland, Netherlands

DC-03. MFM imaging and modelling of ripples in exchange coupled
Fe/MnPt and FeNi/MnPt bilayers. J. Borme1, A. Marty1,
P. Bayle-Guillemaud1 and Y. Samson11. DRFMC/SP2M, CEA,
Grenoble, France

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3:00

4:12

DC-04. Microscopic origin and a role of uncompensated AFM spins in
exchange biased Mn-Ir/Co-Fe bilayers. M. Tsunoda1,
S. Yoshitaki1, C. Mitsumata2,3, T. Nakamura4 and
M. Takahashi1,31. Department of Electronic Engineering, Tohoku
University, Sendai, Miyagi, Japan; 2. Advanced Electronics
Research Labo., Hitachi Metals Ltd., Kumagaya, Saitama, Japan;
3. NICHe, Tohoku University, Sendai, Miyagi, Japan; 4.
JASRI/SPring-8, Sayou-cho, Hyougo, Japan

DC-10. Interplay between reversal asymmetry, training, and induced
anisotropy, in epitaxial exchange biased bilayers. C. Leighton1
and M.S. Lund11. University of Minnesota, Minneapolis, MN,
USA

3:12

DC-05. Spiral Domain Wall Formation in Spin Valves with Ultra Thin
Antiferromagnetic Layers. S.M. Watson1, S.M. Moyerman2,
J.A. Borchers1, M. Doucet1,3, W. Gannett2, M.J. Carey4,
P.D. Sparks5 and J.C. Eckert51. CNCR, NIST, Gaithersburg, MD,
USA; 2. Harvey Mudd College, Claremont, CA, USA; 3.
University of Maryland, College Park, MD, USA; 4. San Jose
Research Center, Hitachi Global Storage Technologies, San Jose,
CA, USA; 5. Physics, Harvey Mudd College, Claremont, CA, USA

99

4:24

DC-11. Two-component training effect in exchange-biased Co/FeMn
bilayers. J. Parker1,2, M. Chan1, B. Bolon2, P.A. Crowell1 andC. Leighton21. Physics, University of Minnesota, Minneapolis,
MN, USA; 2. Chemical Engineering and Materials Science,
University of Minnesota, Minneapolis, MN, USA
4:36

DC-12. Length Scale Relevance in Asymmetric Magnetization
Reversal. Z. Li1 and I.K. Schuller11. Physics Department, UC San
Diego, La Jolla, CA, USA

3:24
4:48
DC-06. The micromagnetic structure during magnetization reversalof amorphous CoFeB films exchange-biased by IrMn.
A. Kohn1, A. Zeltser2 and M.J. Carey21. Materials, University of
Oxford, Oxford, United Kingdom; 2. Hitachi Global Storage
Technologies, San Jose, CA, USA

DC-13. Coexistence and transformation of negative and positive
exchange bias in NiO-NiFe films. J. McCord1, R. Kaltofen1,
D. Elefant1 and L. Schultz11. IFW Dresden, Dresden, Germany

3:36

DC-07. FMR and BLS study of the interfacial coupling in (NiO/Py)
bilayers. F. Zighem1, H. Hurdequint2, Y. Roussigné1, S. Chérif1and P. Moch11. LPMTM, Université Paris 13, Villetaneuse,France; 2. LPS, Université Paris Sud, Orsay, France
3:48

TUESDAY
AFTERNOON
2:00

HARBORSIDE D

Session DD

MAGNETIC TUNNEL JUNCTIONS (MgO) III
Sining Mao, Session Chair

DC-08. Influence of the cooling field and temperature on exchange
bias effects in GdFe/TbFe bilayer. T. Hauet1, S. Mangin1,
J. Borchers2, F. Montaigne1 and E.E. Fullerton31. Laboratoire dePhysique des Matériaux, Nancy-University CNRS, Vandoeuvre,
France; 2. NIST Center for Neutron Research, Gaithersburg, MD,
USA; 3. San Jose Research Center, Hitachi Global Storage
Technologies, San Jose, CA, USA

DD-01. Negative tunneling magnetoresistance from spin accumulationin isolated superconductors. H. Yang1, S. Yang1 and S. Parkin11.
IBM/Stanford Univ., San Jose, CA, USA

4:00

2:12

DC-09. Characterization and analysis of the training effect of
exchange bias in coupled NiFe/IrMn bilayers. H. Xi1,
S. Franzen1, S. Mao1 and R.M. White21. Advanced Transducer
Development, Seagate Technology, Bloomington, MN, USA; 2.
Department of Electrical and Computer Engineering, Carnegie
Mellon University, Pittsburgh, PA, USA

DD-02. Double barrier tunnel junctions based on MgO displaying
inverse magnetoresistance. T. Leo1, H. Yang3, S. Yang3,
S. Parkin3 and D.J. Smith2,11. School of Materials, Arizona State
University, Tempe, AZ, USA; 2. Department of Physics, ArizonaState University, Tempe, AZ, USA; 3. IBM Almaden ResearchCentre, San Jose, CA, USA

2:00

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PROGRAMPROGRAM

2:24

4:24

DD-03. Giant tunnel magnetoresistance ratio of 472% at room
temperature and 804% at low temperature in sputtered
pseudo spin-valve CoFeB/MgO/CoFeB magnetic tunnel
junctions. Y. Lee1, J. Hayakawa2,1, S. Ikeda1, F. Matsukura1,
H. Takahashi2 and H. Ohno11. RIEC, Tohoku University, Sendai,
Japan; 2. ARL, Hitachi, Tokyo, Japan

DD-09. Variations in magnetic interfaces of CoFeB/MgO and
CoFe/MgO. E. Negusse1, A. Lussier1, J. Dvorak1, Y.U. Idzerda1,
S. Shinde2, Y. Nagamine2, S. Furukawa2 and K. Tsunekawa21.
Physics, Montana State University, Bozeman, MT, USA; 2.
Canon-ANELVA, Corporation, San Jose, CA, USA
4:36

2:36

DD-04. Defect-mediated properties of magnetic tunnel junctions.
(Invited) J. Velev1, K.D. Belashchenko1, M.Y. Zhuravlev1,
S.S. Jaswal1, E.Y. Tsymbal1, T. Katayama2 and S. Yuasa21.
Department of Physics, University of Nebraska, Lincoln, NE,
USA; 2. National Institute of Advanced Industrial Science andTechnology, Tsukuba, Japan

101

DD-10. Improvement of transport properties in magnetic tunneling
junctions by capping materials. C. Shen1, C. Yen1, W. Chen1,
S. Yang1, Y. Wang1, Y. Lee1, D. Wang1, K. Shen1, M. Kao1 and
M. Tsai11. Industrial Technology Research Institute, Hsinchu,
Taiwan
4:48

3:12

DD-05. An oscillation of tunneling magnetoresistance with respect totunneling barrier thickness in MgO-based fully epitaxial
magnetic tunnel junctions. (Invited) R. Matsumoto1,2,
A. Fukushima1, Y. Suzuki1,2, K. Ando1 and S. Yuasa11.
Nanoelectronics Research Institute, National Institute ofAdvanced Industrial Science and Technology (AIST), Tsukuba,
Japan; 2. Graduate School of Engineering Science, Osaka
University, Toyonaka, Japan
3:48

DD-06. MgO-based magnetic tunnel junction (MTJ) sensors withsynthetic antiferromagnetic (SAF) free layer. W. Shen1,
D. Mazumdar1, X. Liu2, B. Schrag2 and G. Xiao11. Physics
Department, Brown University, Providence, RI, USA; 2. Micro
Magnetics, Inc., Fall River, MA, USA

DD-11. Spin polarized tunnelling in single crystal Fe/Cr/MgO/Fe
junctions. C.V. TIUSAN1, F. Greullet1, D. Halley2, F. Montaigne1,
G. Lengaigne1, J. Arabski2, W. Weber2 and M. Hehn11. Nancy
University, CNRS, Institut de Physique des Materiaux,
Vandoeuvre les Nancy, Lorraine, France; 2. Universite Louis
Pasteur, Institut de Physique et Chimie des Materiaux,
Strasbourg, France

TUESDAY
AFTERNOON
2:00

HARBORSIDE E

Session DE

ULTRATHIN FILMS AND SURFACE EFFECTS
II

4:00

Axel Enders, Session Chair

DD-07. Fabrication of fully epitaxial
Co2Cr0.6Fe0.4Al/MgO/Co2Cr0.6Fe0.4Al tunnel junctions andtheir tunnel magnetoresistance characteristics. T. Marukame1,
T. Ishikawa1, S. Hakamata1, K. Matsuda1, T. Uemura1 andM. Yamamoto11. Division of Electronics for Informatics,
Hokkaido University, Sapporo, Japan

2:00

4:12

DD-08. Atomic and Electronic Structure of the CoFeB/MgO Interface
from First Principles. J.D. Burton1, S.S. Jaswal1, E.Y. Tsymbal1,
O.N. Mryasov2 and O.G. Heinonen31. Physics and Astronomy,
Nebraska Center for Materials and Nanoscience, University of
Nebraska Lincoln, Lincoln, NE, USA; 2. Seagate Research,
Pittsburgh, PA, USA; 3. Seagate Technology, Bloomington, MN,
USA

DE-01. Transition between creep and viscous motion in ultrathin
Pt/Co/Pt films with perpendicular anisotropy. P.J. Metaxas1,3,
J. Jamet1, A. Mougin1, M. Cormier1, J. Adam1, J. Ferré1, V. Baltz2,
B. Rodmacq2, B. Dieny2 and R.L. Stamps31. Laboratoire dePhysique des Solides, Université Paris-Sud, Orsay, France; 2.
SPINTEC, CEA Grenoble, Grenoble, France; 3. School ofPhysics, University of Western Australia, Crawley, WA, Australia
2:12

DE-02. Ultrafast laser induced changes to the magnetic anisotropy inepitaxial ferromagnetic metals. V.A. Stoica1 and R. Clarke11.
Applied Physics, University of Michigan, Ann Arbor, MI, USA

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103

2:24

3:24

DE-03. Measurement of surface pinning at a Py/Co interface using
inductive magnetometry. K.J. Kennewell1, M. Ali2, M. Kostylev1,
D. Greig2, B.J. Hickey2 and R. Stamps11. Physics, University ofWestern Australia, Crawley, WA, Australia; 2. Physics, Universityof Leeds, Leeds, United Kingdom

DE-08. Interface atomic structure and magnetic anisotropy inultrathin Fe films grown by TD and PLD on GaAs(001).
B. Kardasz1, J. Zukrowski2,3, O. Mosendz1, M. Przybylski3,
B. Heinrich1 and J. Kirschner31. Physics, Simon Fraser University,
Burnaby, BC, Canada; 2. Solid State Physics, AGH University of
Science and Technology, Krakow, Poland; 3. Max-Planck-Institut
für Mikrostrukturphysik, Halle, Germany

2:36
3:36
DE-04. Ferromagnetic resonance in the proximity of an unstableequilibrium: a study in permalloy thin films and nano-scale
dots. M.J. Pechan1, C. Yu1, R. Bennett1, J. Katine2, L. Folks2 and
M. Carey21. Physics, Miami University, Oxford, OH, USA; 2.
Hitachi Global Storage Technologies, San Jose, CA, USA

2:48

DE-05. Element specific separation of bulk and interfacial
magnetism. A.K. Suszka1, C.J. Kinane1, C.H. Marrows1,
B.J. Hickey1, A. Lamperti2, B.K. Tanner2, D.A. Arena3, J. Dvorak4
and S. Langridge51. School of Physics and Astronomy, Universityof Leeds, Leeds, Yorkshire, United Kingdom; 2. Physics
Department, Durham University, Durham, United Kingdom; 3.
National Synchrotron Light Source, Brookhaven National
Laboratory, Upton, NY, USA; 4. Physics Department, Montana
State University, Boezman, MT, USA; 5. Rutheford Appleton
Laboratory, Didcot, Oxon, United Kingdom

DE-09. Structure of Epitaxially Grown Iron on GaAs(001). P. Ryan1,
J. Kim1, J.M. Shaw2, P.F. Miceli3 and C.M. Falco21. Ames
Laboratory, Argonne, IL, USA; 2. Optical Sciences Center,
University of Arizona, Tuscon, AZ, USA; 3. Dept. of Physics andAstronomy, University of Missouri-Columbia, Columbia, MO,
USA

3:48

DE-10. Anisotropy of Ultrathin Epitaxial Fe3O4 Films on GaAs(100).
Y. Zhai1,2, Z. Huang2, Y. Fu2, C. Ni2, Y. Lu1, Y. Xu1, J. Wu3 andH. Zhai41. Spintronics Laboratory, Department of Electronics,
University of York, York, United Kingdom; 2. Department of
Physics, Southeast University, Nanjing, China; 3. Department of
Physics, University of York, York, United Kingdom; 4. National
Laboratory of Solid Microstructures, Center for Materials
Analysis, Nanjing University, Nanjing, China

3:00
4:00
DE-06. Anisotropy of surface resonant states on Fe(001) due to spinorbit coupling. A. Chantis1, M. van Schilfgaarde1,
K.D. Belashchenko2 and E.Y. Tsymbal21. Department of Chemicaland Materials Engineering, Arizona State University, Tempe, AZ,
USA; 2. Department of Physics and Astronomy, University of
Nebraska-Lincoln, Lincoln, NE, USA

3:12

DE-07. Evidence of Anisotropic Damping Coefficient in Single
Crystal Ultrathin Fe Films by Ferromagnetic Resonance.
Y. Zhai1,2, Y. Fu1, Y. Xu1, C. Ni1, Y. Xu2, J. Wu3 and H. Zhai41.
Department of Physics, Southeast University, Nanjing, China; 2.
Department of Electronics, The University of York, York, United
Kingdom; 3. Department of Physics, The University of York, York,
United Kingdom; 4. Center for Materials,Analysis, National
Laboratory for Solid State Microstructures, Nanjing University,
Nanjing, China

DE-11. In-plane magnetic anisotropies in sputtered
CoFe/AlGaAs(001) spin-injector heterostructures.
A.T. Hindmarch1, C.J. Kinane1, C.H. Marrows1, B.J. Hickey1,
M. Henini2, D.A. Arena3 and J. Dvorak41. School of Physics &Astronomy, University of Leeds, Leeds, United Kingdom; 2.
School of Physics & Astronomy, University of Nottingham,
Nottingham, United Kingdom; 3. National Synchrotron Light
Source, Brookhaven National Laboratory, Upton, NY, USA; 4.
Department of Physics, Montana State University, Bozeman, MT,
USA

4:12

DE-12. RE-TM amorphous alloy and Fe bi-layered films for buffer
layer to attain MgO (100) texture. T. Hatori1, H. Ohmori1,
M. Tada1 and S. Nakagawa11. Dept. of Physical Electronics, Tokyo
Institute of Technology, Tokyo, Tokyo, Japan

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105

4:24

2:48

DE-13. Influence of substrate roughness on the magnetic propertiesof thin fcc Co films. S.J. Steinmuller1, C.F. Vaz1, V. Ström1,
C. Moutafis1, C.M. Gürtler1, M. Kläui1, J.C. Bland1 and Z. Cui21.
Department of Physics, University of Cambridge, Cambridge,
United Kingdom; 2. Rutherford Appleton Laboratory, Oxford,
United Kingdom

DF-03. Anomalous Hall Effect in superparamagentic Co(La,Sr)TiO3. S. Zhang1, W. Yu1, S.B. Ogale1, S.R. Shinde1,
D.C. Kundaliya1, J. Higgins1, R. Sahu1, R.L. Greene1 and
T. Venkatesan11. Department of Physics, University of Maryland,College Park, MD, USA

3:00

4:36

DE-14. Thickness and Organic Functional Group Dependent
Magnetic Properties of Deposited Cobalt Thin Film over SelfAssembled Monolayer. S.G. Rao1, S.N. Ahmad1 and
S.A. Shaheen11. Physics, Center for Materials Research andTechnology, Florida State University, Tallahassee, FL, USA

DF-04. The effect of oxygen growth pressure on Co precipitation in
TiO2-δ: Co: An experimental investigation. E. Hu1,
P.A. Stampe2, R.J. Kennedy2, Y. Xin3 and S. von Molnár11.
MARTECH and Physics Department, Florida State University,
Tallahassee, FL, USA; 2. Physics Department, Florida A&M
University, Tallahassee, FL, USA; 3. National High Magnetic
Field Laboratory, Tallahassee, FL, USA

4:48
3:12
DE-15. Controlled magnetic anisotropy of SrRuO3 thin films grown
on nominally exact SrTiO3(001) substrates. G. Herranz1,
F. Sánchez1, N. Dix1, D. Hrabrovsky1, I.C. Infante1, M.V. GarcíaCuenca2, C. Ferrater2, J. Fontcuberta1 and M. Varela21. Institut deCiència de Materials de Barcelona, Bellaterra, Spain; 2. Física
Aplicada i Òptica, Universitat de Barcelona, Diagonal 647,,
08028 Barcelona, Spain

DF-05. ON THE NATURE OF FERROMAGNETISM INNONSTOICHIOMETRIC (Ti,Co)O2 V. Fleurov1 andK. Kikoin21. School of Physics and Astronomy, Tel Aviv
University, Tel Aviv, Israel; 2. Physics Department, Ben Gurion
University, Beer Sheva, Israel

3:24

TUESDAY
AFTERNOON
2:00

ESSEX

Session DF

OXIDE MAGNETIC SEMICONDUCTORS I
Ronnie Jansen, Session Chair
2:00

DF-01. The Road to Diluted Magnetic Semiconducting Oxides.
(Invited) T. Venkatesan11. Department of Physics, University of
Maryland, College Park, MD, USA

DF-06. Phase Diagram of Ferromagnetism in Co doped TiO2 System.
D. Kundaliya1, S.B. Ogale1, S.X. Zhang1, L.F. Fu2, M. Liberati3,
A. Lussier3, S. Dhar1, B. Varughese4, N.D. Browning2, Y. Idzerda3
and T. Venkatesan11. Department of Physics, University of
Maryland,, College park, MD, USA; 2. NCEM, LBNL, Berkeley,
CA, USA; 3. Department of Physics, Montana State University,
Bozeman, MT, USA; 4. Department of Chemistry, University of
Maryland, College Park, MD, USA

3:36

DF-07. Magnetic Coupling via Delocalized Impurity Band Electronsin Anatase Co:TiO2 Ferromagnetic Semiconductor.
R. Ramaneti1, J.C. Lodder1 and R. Jansen11. MESA+ Institute for
Nanotechnology, University of Twente, Enschede, Netherlands

2:36
3:48
DF-02. Characteristics of Ti1-xCoxO2 Thin Films Deposited by
MOCVD. A.M. McClure1, A. Kayani1, M. Liberati1, J. Holroyd1,
R.J. Smith1, Y.U. Idzerda1 and E. Arenholz21. Physics, Montana
State University, Bozeman, MT, USA; 2. Lawrence Berkeley
National Laboratory, Berkeley, CA, USA

DF-08. Ordering in Diluted Magnetic Semiconductors, a Magnetic
Percolation Phenomena. (Invited) O. Eriksson11. Department of
Physics, Uppsala University, Uppsala, Sweden

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PROGRAMPROGRAM

107

4:24

2:12

DF-09. SWITCHING THE FERROMAGNETISM OF ZnO:(Co, Mn)
POWDERS. D. Rubi1, J. Fontcuberta1, J. Arbiol2, A. Calleja3,
L. Aragonés3, X.G. Capdevila4 and M. Segarra41. Institut deCiència de Materials de Barcelona, 08193, Bellaterra, Spain; 2.
TEM-MAT Serveis Cientificotècnics, Universitat de Barcelona,
Solé i Sabarís 1-3,, 08028, Barcelona, Spain; 3. Quality
Chemicals, 08292, Esparraguera, Spain; 4. Facultat de Química,
Universitat de Barcelona, Martí i Franquès 1, 08028, 08028,
Barcelona, Spain

DG-02. Multiple Phase Transitions in Γ8 Quartet Ground-State
SmAg2In and Heavy-Electron Behavior in TmAg2In.
H. Tanida1, S. Takagi1, H.S. Suzuki2, H. Onodera1 andK. Tanigaki11. Physics Department, Tohoku University, Sendai,
Japan; 2. National Institute for Materials Science, Tsukuba,
Japan

2:24

4:36

DF-10. Magnetic Properties of Zn1-xCoxO (0 < x < 0.1) and Co3-yZnyO4(y=0, 0.25, and 1) Thin Films on Vacuum Annealing.
S. Chandran1, P. Kharel1, G. Lawes1, R. Suryanarayanan2,1,
R. Naik1 and V.M. Naik31. Department of Physics and Astronomy,
Wayne State University, Detroit, MI, USA; 2. LPCES, Université
Paris-Sud, Orsay, France; 3. Department of Natural Sciences,
University of Michigan-Dearborn, Dearborn, MI, USA
4:48

DF-11. Magnetic and Transport properties of ZnO films co-dopedwith Al and Co or Mn. J.R. Neal1, A.J. Behan1, A. Mokhtari1,
H.J. Blythe1, A.M. Fox1 and G.A. Gehring11. Department of
Physics and Astronomy, The University of Sheffield, Sheffield,
United Kingdom

TUESDAY
AFTERNOON
2:00

LAURELDG-03. Nonmagnetic impurities in a two-leg Hubbard ladder.
A. Medhi1, S. Basu1 and C. Kadolkar11. Department of Physics,
Indian Institute of Technology Guwahati, Guwahati, Assam, India

2:36

DG-04. Local Investigation of Magnetism at R And In Sites in RNiIn(R = Gd, Tb, Dy, Ho) compounds. A.L. Lapolli1, D.T. Leite1,
J. Mestnik-Filho1, R.N. Saxena1 and A.W. Carbonari11. CRPq,
Instituto de Pesquisas Energeticas e Nucleares - IPEN-CNEN/SP,
Sao Paulo, Sao Paulo, Brazil

2:48

DG-05. Weak ferromagnetism in single crystalline YbB6-δ J. Kim1,
N. Sung1 and B. Cho11. Material Science and Engineering,
Gwangju institute of science and technology, Gwangju, South
Korea

3:00

Session DG

4f, 5f AND STRONGLY CORRELATEDSYSTEMS
Ross Erwin, Session Chair
2:00

DG-01. Muon spin resonance study on UCu1.5Sn2. S.T. El-Khatib1,2,
G. Kalvius3, D. Noakes4, E.J. Ansaldo5, C.E. Stronach4,
E. Brück6, A. Llobet2 and H. Nakotte11. Physics, New Mexico
State University, Las Cruces, NM, USA; 2. Los Alamos National
laboratory, Los Alamos, NM, USA; 3. Physics Department,
Technical University Munich, Munich, Garching, Germany; 4.
Chemistry and Physics Department, Virginia State University,
Petersburg, VA, USA; 5. University of Saskatchewan, Saskatoon,
SK, Canada; 6. Van der Waals-Zeeman Institute, Valkenierstraat,
Amsterdam, Netherlands

DG-06. Crystal field excitations in the singlet ground state compound
Pr3In. A.D. Christianson1,2, J.M. Lawrence2, K.C. Littrell1,4,
J.D. Thompson3 and J.L. Sarrao31. Oak Ridge National
Laboratory, Oak Ridge, TN, USA; 2. University of California,
Irvine, CA, USA; 3. Los Alamos National Laboratory, Los
Alamos, NM, USA; 4. Argonne National Laboratory, Argonne, IL,
USA

3:12

DG-07. Electron Holography and Atomic Resolution Spectroscopy ofCorrelated Electron Systems. (Invited) M.A. Schofield1,
M. Beleggia1, R.F. Klie1 and Y. Zhu11. Center for Functional
Nanomaterials, Brookhaven National Laboratory, Upton, NY,
USA

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PROGRAMPROGRAM

109

3:48

2:24

DG-08. Low dimensional intermediate valence fluctuation in single
crystalline YbB4. J. Kim1, B. Cho1,2, H. Lee3 and H. Kim31.
Materials Science and Engineering, Gwangju Institute of Scienceand Technology (GIST), Gwangju, South Korea; 2. Center for
Strongly Correlated Material Research (CSCMR), Seoul National
University, Seoul, South Korea; 3. System Research Team,National Fusion Research Center, Daejon, South Korea

DH-03. Low-field magnetic tunnel junction sensor characterization
via sensitivity “asteroid” curves. B.D. Schrag1,2, X. Liu1,2,
D. Mazumdar2, W. Shen2 and G. Xiao1,21. Micro Magnetics, Inc.,
Fall River, MA, USA; 2. Department of Physics, Brown
University, Providence, RI, USA

2:36
4:00

DG-09. Magnetic Ordering in Heavy Rare Earth Metals from ab
initio. I. Hughes1, M. Däne2, A. Ernst3, W. Hergert2, M. Lüders4,
J. Poulter5, J.B. Staunton1, A. Svane6, D. Szotek4 and
W.M. Temmerman41. Department of Physics, University of
Warwick, Coventry, United Kingdom; 2. Fachbereich Physik,
Martin-Luther-Universität Halle-Wittenberg, Halle, Germany; 3.
Max Planck Institut für Mikrostrukturphysik, Halle, Germany; 4.
Daresbury Laboratory, Warrington, United Kingdom; 5.
Department of Mathematics, Mahidol University, Bangkok,
Thailand; 6. Institute of Physics and Astronomy, University of
Aarhus, Aarhus, Denmark

TUESDAY
AFTERNOON
2:00

DOVER

Session DH

MAGNETIC SENSORS (NOT MAGNETIC
RECORDING)
Albrecht Jander, Session Co-chair
Arthur Pohm, Session Co-chair
2:00

DH-01. Magnetic Noise in Magnetic Tunnel Junctions. S.E. Russek1,
J.M. Shaw1, R. Geiss1 and D.P. Pappas11. National Institute ofStandards and Technology, Boulder, CO, USA

2:12

DH-02. 1/f Noise in Linear Magnetic Tunnel Junctions with Picture
Frame Geometry. J.M. Almeida1,2, R. Ferreira1,2 and
P.P. Freitas1,21. Instituto de Engenharia de Sistemas e
Computadores - Microsistemas e Nanotecnologias (INESC-MN),
Lisbon, Portugal; 2. Physics Department, Instituto Superior
Técnico (IST), Lisbon, Portugal

DH-04. Testing the MEMS Flux Concentrator. A. Edelstein1,
G.A. Fischer1, E.R. Nowak2, W.L. Benard3 and S. Cheng41.
AMSRD-ARL-SE-SS, U.S. Army Research Lab, Adelphi, MD,
USA; 2. Dept.of Physics and Astronomy, University of Delaware,
Newark, DE, USA; 3. The MEMS Exchange, Reston, VA, USA; 4.
Naval Research Laboratory, Washington, DC, USA

2:48

DH-05. Low Field Giant Magneto-Resistance Analysis of Multilayer
Magnetic Rings: Understanding Reversible and Irreversible
Processes. F.D. Schackert1, J. Llandro1, D. Morecroft1,
T.J. Hayward1, C.A. Vaz1, J.A. Bland1, F.J. Castano2 andC.A. Ross21. Cavendish Laboratory, University of Cambridge,
Cambridge, United Kingdom; 2. Materials Science andEngineering, Massachusetts Institute of Technology, Cambridge,
MA, USA

3:00

DH-06. High-frequency Carrier-type Thin-film Sensor with a sub-pT
resolution at room temperature. S. Yabukami1, K. Ishiyama2 andK. Arai31. Dept. of Electrical Engineering and Information
Technology, Tohoku-Gakuin University, Tagajo, Japan; 2. RIEC,
Tohoku University, Sendai, Japan; 3. The Research Institute For
Electric and Magnetic Materials, Sendai, Japan

3:12

DH-07. New magnetic sensor technology. J.L. Prieto1, M. GonzálezGuerrero1, C. Aroca1, M. Blamire2, R. Tomov2, W. Booij3,
A. Vogl3, D.T. Wang3, J. Kubik4, P. Ripka4, M.D. Michelena5,
R.P. del Real5 and H. Guerrero51. Física Aplicada, Universidad
Politécnica de Madrid, Madrid, Madrid, Spain; 2. Materials
Science, University of Cambridge, Cambridge, United Kingdom;
3. SINTEF IKT, Microsystems and Nanotechnology, Oslo,
Norway; 4. Department of Measurements, Faculty of ElectricalEngineering, Praha, Czech Republic; 5. Laboratorio deOptoelectrónica, Instituto Nacional de Técnica Aeroespacial INTA, Madrid, Spain

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PROGRAMPROGRAM

3:24

4:48

DH-08. Fundamental-mode orthogonal fluxgate employing
temperature compensation with artificial neural networks.
A. Plotkin1, A. Samohin1 and E. Paperno11. E&CE, Ben-Gurion
University of the Negev, Beer-Sheva, Israel

DH-15. Constant velocity of domain wall propagation independent ofapplied field strength in Vicalloy wire for zero-speed sensor.
H. Tanaka1, T. Yamada1, Y. Takemura1, S. Abe2, S. Kohno3 andH. Nakamura31. Division of Electrical and Computer
Engineering, Yokohama National University, Yokohama, Japan; 2.
Kanagawa University, Yokohama, Japan; 3. Nikkoshi Co., Ltd.,Tokyo, Japan

3:36

DH-09. A triaxial orthogonal fluxgate magnetometer made of a single
magnetic wire with three U-shaped branches. K. Goleman1 and
I. Sasada11. Kyushu University, Fukuoka, Japan
3:48

TUESDAY
AFTERNOON
1:00

111

GRAND BALLROOM

Session DP
DH-10. A Bi-Layer Sensor System for Measuring Air Flow.
G.S. Katranas1 and T. Meydan11. Wolfson Centre for Magnetics,
Cardiff University, Cardiff, South Glamorgan, United Kingdom
4:00

DH-11. Modularly Designed Magnetoelastic Micro Strain Gauge.
S. Hansen1, L. Rissing1 and H.H. Gatzen11. Institute forMicrotechnology, Leibniz Universitaet Hannover, Garbsen, Lower
Saxony, Germany
4:12

DH-12. A Rate of Change of Torque Sensor. I.J. Garshelis1,2, R.J. Kari2and S. Tollens21. Magnova, Inc., Pittsfield, MA, USA; 2.
MagCanica Inc., San Diego, CA, USA
4:24

TRANSFORMERS AND INDUCTORS(POSTER SESSION)
Masahiro Yamaguchi, Session Chair
DP-01. Reduction of Proximity Effect in Coil Using Magnetoplated
Wire. T. Mizuno1, S. Enoki2, T. Asahina1, T. Suzuki1, M. Noda1
and H. Shinagawa21. Faculty of Engineering, Shinshu University,
Nagano, Nagano, Japan; 2. Shinkawa Sensor Technology Inc.,
Higashi Hiroshima, Hiroshima, Japan
DP-02. Design and Characteristics of 1 MVA Cable Transformer with
Epoxy-Moulded Low-Voltage Side. J. Park1, W. Heo1, I. Cho1,
H. Jeong2, M. Jang2 and Y. Kwon21. Hyosung Coporation,
Changwon, South Korea; 2. School of Electrical Engineering,
Pusan National University, Busan, South Korea
DP-03. A VIBRATION MODE ANALYSIS OF HELICAL WINDING
OF POWER TRANSFORMER BY THE
PSEUDOSPECTRAL METHOD. J. Lee2, P. Shin1 and J. Ha11.
Eelectrical Engineering, Hongik University, Jochiwon,
Chungnam, South Korea; 2. Mechano-Informatics, Hongik
University, Jochiwon, Chubgnam, South Korea

DH-13. Plasma Sprayed Cobalt Ferrite Thick Film Coatings for
Magnetostrictive Sensor Application. S. Liang1, B.G. Ravi1,
R.J. Gambino1 and S. Sampath11. Department of Materials
Science and Engineering, Stony Brook University, Stony Brook,
NY, USA

DP-04. The Normal Flux Distribution for 3-Phase Transformer Coreat T-joints and Corners under Sinusoidal and PWM
Excitations. X. Yao1, A. Moses1 and F. Anayi11. School ofEngineering, Cardiff University, Wolfson Centre for Magnetics
Technology, Cardiff, Wales, United Kingdom

4:36

DP-05. Improvement of electromagnetic compatibility of induction
motor drives using optimized chaotic PWM. Z. Wang1 and
K. Chau11. Department of Electrical and Electronic Engineering,
The University of Hong Kong, Hong Kong, China

DH-14. Improvement on Defect Detection Performance of PCB
Inspection Based on ECT Technique with Multi SV-GMR
Sensor. K. Chomsuwan2,1, S. Yamada1 and M. Iwahara11. Instituteof Nature and Environmental Technology, Kanazawa University,
Kanazawa, Ishikawa, Japan; 2. Electrical Technology Education,
King Mongkut’s University of Technology Thonburi, Thungkru,
Bangkok, Thailand

DP-06. Microwave Absorbers of Two-layer (Dielectric/Magnetic)
Composites Laminate for Wide Oblique Incidence Angles.
J. Kim1, J. Jeong1, S. Kim1 and S. Kim11. Department of Materials
Engineering, Chungbuk National University, Cheongju, South
Korea

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PROGRAMPROGRAM

DP-07. Effect of AC-AC Conversion Topology on Separation of Losses
in Si-Fe steel. J. Sagarduy1, A.J. Moses1 and F.J. Anayi11. Cardiff
School of Engineering, Wolfson Centre for Magnetics, Cardiff,
United Kingdom
DP-08. A novel magnetic coupled power and data transferring system
for an ocean observation mooring buoy. D. Yoshioka1,
H. Sakamoto1, Y. Ishihara2 and T. Matsumoto21. Electronics andComputer Network Engineering, Sojo Univ., Kumamoto,Kumamoto, Japan; 2. Japan agency for marine-earth science andtechnology, Yokosuka, Kanagawa, Japan
DP-09. Distributions of leakage magnetic fields produced frominduction cooking appliances. K. Kamata1, A. Haga2 andK. Muramatsu31. Kagoshima National College of Technology,
Kirishima, Kagoshima, Japan; 2. Tohoku Gakuin Univ., Tagajo,
Miyagi, Japan; 3. Saga Univ., Saga, Saga, JapanTUESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session DQ

MAGNETO-OPTIC RECORDING AND
ALTERNATIVE MAGNETIC STORAGE(POSTER SESSION)113

DQ-05. Effect of switching field gradient for thermally assisted
magnetic recording. F. Akagi1, T. Matsumoto1 andK. Nakamura11. Hitachi, Ltd., Kokubunji, Tokyo, Japan

DQ-06. IMPROVED PATTERNED MEDIA FOR PROBE-BASED
HAMR. E. Algré1, G. Gaudin1, A. Bsiesy1 and J. Nozières21.
SPINTEC (CNRS/CEA), Grenoble, France; 2. Crocus Technology,
Grenoble, France

DQ-07. FDTD SIMULATION ON NEAR-FIELD OPTICS FORGRANULAR RECORDING MEDIA IN HYBRIDRECORDING. K. Nakagawa1, J. Kim1, S. Kudoh1 and A. Itoh11.
Dep. of Electronics & Computer Science, College of Sci. & Tech.,Nihon University, Funabashi, Chiba 274-8501, Japan

DQ-08. TOWARDS SPIN VALVE MAGNETIZATION REVERSALBY SPIN POLARIZED CURRENT INJECTION FROM AN
AFM TIP. P. Zermatten1, G. Gaudin1, L. Prejbeanu1 andJ. Nozières21. SPINTEC (CNRS/CEA), Grenoble, France; 2.
CROCUS Technology, Grenoble, France

DQ-09. Sub-continuum Thermal Transport Modeling for HAMR
System via Lattice Boltzmann Method Incorporating
Nonlinear Dispersion. D. Kim1, S.S. Ghai1, W. Kim2, H. Kim1
and M.S. Jhon11. Depart of Chemical Engineering and Data
Storage Systems Center, Carnegie Mellon University, Pittsburgh,
PA, USA; 2. Samsung Corning Precision Glass, Asan-si, South
Korea

James Bain, Session Chair
DQ-01. Sub-picosecond Magnetization Reversal in Ferrimagnetic
GdFeCo: The Role of Magnetization Compensation.
C. Stanciu1, A. Tsukamoto2, A. Kimel1, F. Hansteen1, A. Itoh2,
A. Kirilyuk1 and T. Rasing11. IMM, Radboud University
Nijmegen, Nijmegen, Netherlands; 2. Department of Science andTechnology, College of Science and Technology, Nihon University,
Chiba, Japan
DQ-02. Study of “Write Once” Hard Disk Media with Thermally
Assisted Method for Compliance Use. T. Koda1, M. Tani1 andH. Awano11. Hitachi Maxell, Ltd., Tsukuba-mirai, Ibaraki, Japan
DQ-03. Cu doped FePt Grains Fabricated On SiO2 Substrates Having
Self-Organized Nano-Pores and domain structure in
TbFeCo/FePt CGC-like film. A. Itoh1, A. Tsukamoto1, H. Sato2,
Y. Adachi2, M. Motohashi2 and T. Yoda21. Dept. of Electronics &Computer Science, College of Science and Technology Nihon
University, Funabashi, Chiba, Japan; 2. Dep. of Electronics,
Graduate School of Nihon University, Funabashi, Chiba, Japan
DQ-04. Optical Head with a Butted Grating Structure that Generates
a Subwavelength Spot for Laser-assisted Magnetic Recording.
F. Tawa1, S. Hasegawa1 and W. Odajima11. Fujitsu laboratories
Ltd., Atsugi, Japan

DQ-10. Simulations of magneto-optic recording. S. Greaves1 andH. Muraoka11. RIEC, Tohoku University, Sendai, JapanTUESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session DR

NANOPARTICLE SYNTHESIS II(POSTER SESSION)
Andris Bakuzis, Session Co-chair
Tomoyuki Ogawa, Session Co-chair
DR-01. Memory effect of magnetic nanoparticle systems originatingfrom particle size distribution. G. Zhang1, S. Zhou1,
K. Potzger1, A. Mücklich1, Y. Ma2 and J. Fassbender11. Institute ofIon Beam Physics and Materials Research, Forschungszentrum
Rossendorf, Dresden, Sachsen, Germany; 2. Department ofModern Physics, University of Science and Technology of China,
Hefei, Anhui, China

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PROGRAMPROGRAM

DR-02. Quench of Orbital Magnetism in Cd1-xMnxSe Quantum
Dots. W. Jian1, J. Fang2 and J. Lin1,31. Department ofElectrophysics, National Chiao Tung University, Hsinchu,
Taiwan; 2. Department of Chemistry and Advanced Materials
Research Institute, University of New Orleans, New Orleans, LA,
USA; 3. Institute of Physics, National Chiao Tung University,
Hsinchu, Taiwan

DR-10. Memory effect in magnetic nanoparticle systems: super-spinglass or super spin-glass. R. Zheng1,2, H. Gu3, J. Du2, B. Zhang2,
B. Xu3, S.P. Ringer1 and X. Zhang21. Australian Key Center for
Microscopy and Microanalysis, The University of Sydney, Sydney,
NSW, Australia; 2. Department of Physics, The Hong Kong
University of Science and Technology, Kowloon, Hong Kong; 3.
Department of Chemistry, The Hong Kong University of Scienceand Technology, Kowloon, Hong Kong

DR-03. Synthesis and Magnetic Properties of Size Controlled Soft
Magnetic Co1-xIrx Alloy Nanoparticles for High Frequency
Applications. C. Chinnasamy1,3, T. Ogawa2, D. Hasegawa2,
H.T. Yang2, S.D. Yoon3, V.G. Harris3 and M. Takahashi2,11. New
Industry Creation Hatchery Center, Tohoku University, Sendai,
Japan; 2. Dept. of Electronic Engineering, Tohoku University,
Sendai, Japan; 3. Electrical&Computer Engineering,Northeastern university, Boston, MA, USA
DR-04. Ion Irradiation Effect on Icosahedral and Octahedral A1
Phase FePt Nanoparticles. J. Qiu1, J. Bai1, Y. Wang2 andJ. Wang11. Electrical and Computer Engineering, University of
Minnesota, Minneapolis, MN, USA; 2. Los Alamos National
Laboratory (LANL), Los Alamos, NM, USA
DR-05. Microstructure and magnetic properties of β-MnO2 coated γMnOOH nanowires. R. Zheng1,2, X. Zhang2, N. Wang2,
S.P. Ringer1 and X. Zhang21. Australian Key Center for
Microscopy amd Microanalysis, The University of Sdyeny, Sydney,
NSW, Australia; 2. Department of Physics, The Hong Kong
University of Science and Technolgy, Kowloon, Hong Kong
DR-06. Magnetic Characteristics of Co nano particle. J. Lee1,
M. Kim1, D. Suess2, T. Schrefl3, K. Oh1 and J. Fidler21. Materials
Science and Engineering, Seoul National University, Seoul, South
Korea; 2. Institute of Solid State Physics, Vienna University ofTechnology, Vienna, Austria; 3. Department of Engineering
Materials, University of Sheffield, Sheffield, United Kingdom
DR-07. Improvement of structural and magnetic properties of L10FePd nanocrystals by Co addition. A. Kovacs1, K. Sato1 and
Y. Hirotsu11. The Institute of Scientific and Industrial Research,
Osaka, Japan
DR-08. Synthesis of magnetic-luminescent Fe3O4@CdTe core-shell
nanoparticles. B. An1, J. Cho1, J. Min1, J. Lee1, Y. Kim1, H. Liu2
and J. Wu31. Materials Science and Engineering, Korea
University, Seoul, South Korea; 2. Institute for Nano Science,
Korea University, Seoul, South Korea; 3. Research Institute ofEngineering and Technology, Korea University, Seoul, South
Korea
DR-09. Spin Orientation, Structure, Morphology and Magnetic
Properties of Hematite Nanoparticles. A.H. Habib2,
M.E. McHenry1,2, S.H. Gee3 and Y.K. Hong41. Materials Sc. andEngg., Carnegie Mellon University, Pittsburgh, PA, USA; 2.
Physics, Carnegie Mellon University, Pittsburgh, PA, USA; 3.
Materials Sc. and Engg., Univ. of Idaho, Moscow, ID, USA; 4.
Electrical and Computer Engg., Univ. of Alabama, Tuscaloosa,
AL, USA

115

DR-11. Multifunctional Fe3O4/Au/Fe3O4 nano-onions. J. Wu2, H. Liu3,
M. Jung4, J. Min1 and Y. Kim11. Materials Science andEngineering, Korea University, Seoul, South Korea; 2. ResearchInstitute of Engineering and Technology, Korea University, Seoul,
South Korea; 3. Institute for Nano Science, Korea University,
Seoul, South Korea; 4. Quantum Materials Research Team, Korea
Basic Science Institute, Daejeon, South Korea
DR-12. Correlation between hcp Ni nanoparticle core and fcc NiOshell. Y. Jo1, S. Park1, M. Jung1, K. Lee2, J. Lee2, S. Yoon3 andJ. Choi31. Quantum Material Research Team, Korea Basic
Science Institute, Daejeon, South Korea; 2. Division of Materials
Science and Engineering, Korea University, SEOUL, South
Korea; 3. Display Device & Material Lab, Samsung Advanced
Institute of Technology, Suwon, South Korea
DR-13. Magnetic Properties of Cobalt Ferrite Nano-particles
Produced by Carbon Combustion Synthesis of Oxide.
L.V. Chang1,3, K. Martirosyan2,3, D. Luss2,3, J. Rantschler1,3,
S. Khizroev4 and D. Litvinov1,31. Department of Electrical andComputer Engineering, University of Houston, Houston, TX,
USA; 2. Department of Chemical Engineering, University of
Houston, Houston, TX, USA; 3. Center for Nanomagnetic
Systems, University of Houston, Houston, TX, USA; 4.
Department of Electrical Engineering, University of California Riverside, Riverside, CA, USA
DR-14. Synthesis and Characterization of Sr-doped Lanthanum
Manganite Nanoparticles. N.D. Lipham1, G.M. Tsoi2 andL.E. Wenger21. Physics, University of West Georgia, Carrollton,
GA, USA; 2. Physics, University of Alabama at Birmingham,
Birmingham, AL, USA
DR-15. Preparation, characterization and in vitro toxicity test ofmagnetic nanoparticle-based drug delivery system toHyperthermia of biological tissues. A.R. Simioni1, F.L. Primo2,
M.A. Rodrigues1, Z.G. Lacava3, P.C. Morais4 and A.C. Tedesco11.
Química, Universidade de São Paulo - FFCLRP, Ribeirão Preto,São Paulo, Brazil; 2. Ciências Farmacêuticas, Universidade deSão Paulo, FCFRP, Ribeirão Preto, São Paulo, Brazil; 3. Genética
e Morfologia, Universidade de Brasília, Instituto de Ciências
Biológicas, Brasilia, Distrito Federal, Brazil; 4. Núcleo de Física
Aplicada, Universidade de Brasília, Instituto de Física, Brasilia,
Distrito Federal, Brazil
DR-16. AC susceptibility of Ni-ferrite coated iron nanoparticles forbiomedical applications. M.D. Shultz2, C. Sangregorio1,
C. Innocenti1 and E.E. Carpenter21. LA.M.M. Dept of Chemistry,
University of Florence, Sesti Fiorentino, Italy; 2. Chemistry,
Virginia Commonwealth University, Richmond, VA, USA

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PROGRAMPROGRAM

DR-17. Engineering water-dispersible FePt nanoparticles forbiological applications. D. Hung1, P. Chiang2, C. Ho2 andY. Yao31. Information & Telecommunications Engineering, Ming
Chuang University, Taipei, Taiwan; 2. Department of Chemical
Engineering, Tunghai University, Taichung, Taiwan; 3. Institute ofPhysics, Academic Sinica, Taipei, Taiwan

DS-02. Large Enhancement of Coercivity of Magnetic Nanodots with
Perpendicular Anisotropy. F. Zhu1, J. Shang1, L. Zhu1 and
C. Chien11. Physics and Astronomy, Johns Hopkins University,
Baltimore, MD, USA

DR-18. Synthesis of modified hydroxyapatite(HAP) substituted with
Fe ion for DDS application. S. Nakamura1, M. Horimoto1,
K. Fujiwara1 and A. Nakahira11. Osaka Pref Univ, Osaka, Japan
DR-19. Bacteria mediated precursor dependant biosynthesis of
nanocrystalline iron oxides and greigite. A.A. Bharde1,
B. Prasad1 and M. Sastry1,21. Physical and Materials Chemistry
Division, National Chemical Laboratory, Pune, Maharashtra,
India; 2. Innovation Centre, Tata Chemicals Ltd., Mumbai,
Maharashtra, India
DR-20. Optical and Electron Paramagnetic Resonance Spectroscopiesof Mn-doped PbS Nanocrystals. R.S. Silva2,1, P.C. Morais2,
H.S. Sullasi3,4, W.E. Ayta3, F. Qu1 and N.O. Dantas11. Instituto deFísica, Laboratório de Novos Materiais Isolantes e
Semicondutores, Universidade Federal de Uberlândia,
Uberlândia, Minas Gerais, Brazil; 2. Instituto de Física, Nucleode Física Aplicada, Universidade de Brasília, Brasilia, Distrito
Federal, Brazil; 3. Instituto de Física, Departamento de Física
Nuclear, Universidade de Brasília, São Paulo, São Paulo, Brazil;
4. Laboratório de Vidros e Datação, Faculdade de Tecnologia deSão Paulo FATEC, São Paulo, São Paulo, Brazil
DR-21. Control of microstructures of Fe-Si-B particles. J. Hong1,
P. Madras2, D.J. Smith2 and A.E. Berkowitz1,31. Center for
Magnetic Recording Research, University of California-San
Diego, La Jolla, CA, USA; 2. Center for Solid State Science andDepartment of Physics and Astronomy, Arizona State University,
Tempe, AZ, USA; 3. Department of Physics, University ofCalifornia-San Diego, La Jolla, CA, USA
DR-22. MBE-grown Fe Magnetic Quantum Dots in ZnS Matrix.
S. Lok1, B. You1, B. Zhang1, X. Zhang1, I. Sou1 and G. Wong11.
Physics, The Hong Kong University of Science and Technology,
Hong Kong, China

TUESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session DS

NANOPARTICLE ARRAYS I(POSTER SESSION)
Matsuhiro Shima, Session Chair
DS-01. Nano inverse sphere Ni arrays by guided self-assembly. X. Li1,
D. Claudio Gonzalez1, M.E. Kiziroglou1, C.H. de Groot1,
A.A. Zhukov2, P.J. de Groot2 and P.N. Bartlett31. School ofElectronics and Computer Science, University of Southampton,
Southampton, Hampshire, United Kingdom; 2. School of Physics
and Astronomy, University of Southampton, Southampton,
Hampshire, United Kingdom; 3. School of Chemistry, Universityof Southampton, Southampton, Hampshire, United Kingdom

117DS-03. Controlled growth and magnetism in nanoparticle assemblies
on nano-structured insulating layer Al2O3/NiAl(100).
W.C. Lin1,2, Z. Gai3, L. Gao3, S. Wong1, P. Huang1, C. Wu1,
K. Song2 and M. Lin1,21. Physics, National Taiwan University,
Taipei, Taiwan; 2. Institute of Atomic and Molecular Sciences,
Academia Sinica, Taipei, Taiwan; 3. Center for Nanophase
Material Science & Condensed Matter Sciences Division, ORNL,Oak Ridge, TN, USA
DS-04. Relating magnetic anisotropy to atomic structure insemiconducting single-walled carbon nanotubes. O.N. Torrens1,
D.E. Milkie1, H.Y. Ban1, M. Zheng2, G. Onoa2, T.D. Gierke2 andJ. Kikkawa11. Physics & Astronomy, University of Pennsylvania,
Philadelphia, PA, USA; 2. Du Pont Central Research &Development, Wilmington, DE, USA
DS-05. An Mossbauer Study on One-dimensional Magnetite Nanochains Synthesis by chemical Self-Assembly in Magnetic Field.
Y. Zhang1, Y. Zhai1, H. Huang2, R. Huang3 and H. Zhai41.
Department of Physics, Southeast University, Nanjing, China; 2.
Department of Material Science and Engineering, Southeast
University, Nanjing, China; 3. Department of Physics, Nanjing
University, Nanjing, China; 4. Center for Materials Analysis,
National Laboratory for Solid State Microstructures, Nanjing
University, Nanjing, China
DS-06. Dynamic relaxation time measurement in magnetic nanowires.
A. Gandhi1, Z. Rahman1, T.F. Lynch1, V. Khaddem-Mousavi1 andA. Rahman21. Department of Physics, Materials and Surface
Science Institute (MSSI), University of Limerick, Limerick,Ireland; 2. Department of Electronic and Computer Engineering,
University of Limerick, Limerick, Ireland
DS-07. Microwave absorption of patterned arrays of Permalloy nanostripes with different aspect ratios. L.M. Malkinski1, M. Yu1,
A. Vovk1, D.J. Scherer II1, Z. Davis1, S. Whittenburg1 and
J. Jung21. Advanced Materials Research Institute, University of
New Orleans, New Orleans, LA, USA; 2. Department ofChemistry, Kangnung National University, Kangnung, South
Korea
DS-08. Domain Stability in (Co/Pd)30 Nanodots. E. Chunsheng1,
V. Parekh1, J.O. Rantschler1, K. Sakhrat2 and D. Litvinov11. Center
for Nanomagnetic Systems, University of Houston, Houston, TX,
USA; 2. Electrical Engineering, University of California Riverside, Riverside, CA, USA
DS-09. Nanotemplate based fabrication of magnetic nanoparticles
encapsulated by noble-metal thin film. J. Kim1, J. Kim1, N. Oh1,
K. Baek1, J. Park1, C. Kim1 and C. Yoon11. Department ofMaterials Science and Engineering, Hanyang University, Seoul,
Seoul, South Korea

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PROGRAMPROGRAM

DS-10. Facile large-scale synthesis of monodisperse Fe nanoparticles
by modest-temperature decomposition of Fe(CO)5. H. Yang1,
F. Ito1, D. Hasegawa1, T. Ogawa1 and M. Takahashi21. Department
of Electronic Engineering, Graduate School of Engineering,Tohoku University, Sendai, Miyagi, Japan; 2. New Industry
Creation Hatchery Center, Tohoku University, Sendai, Japan

DT-06. Effect of crystallographic orientation of Co2MnGe Heusleralloy film on its surface roughness and ordered structure.
Y. Takeda1, S. Yoshimura1, M. Takano1, H. Asano1 and
M. Matsui11. Department of Crystalline Materials Science,
Graduate School of Engneering, Nagoya University, Nagoya,Japan

DS-11. Magnetization of γ-Fe2O3 nanoparticles diluted in porous
vycor glass: Effects of particle size. W.C. Nunes1, D.C. Gomes2,
I.O. Mazali2, M. Knobel1 and O.L. Alves21. Instituto de Física,
UNICAMP, São Paulo, Campinas, Brazil; 2. Instituto de Química,
Unicamp, Campinas, São Paulo, Brazil

DT-07. Giant Magnetoresistance in Half Metallic Fe3O4 Based Spin
Valve Structures. D. Tripathy1 and A. Adeyeye11. Electrical andComputer Engineering, National University of Singapore,
Singapore, Singapore

TUESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session DT

HALF-METALLIC FERROMAGNETS I(POSTER SESSION)Tom Ambrose, Session Chair
DT-01. Enhanced spin-dependent tunneling magnetoresistance inmagnetite films coated by polystyrene. W. Wang1 and J. Tang11.
Department of Physics, University of New Orleans, New Orleans,
LA, USA
DT-02. Half-metallicity and disorder effects in Co2TiSn.
H.C. Kandpal1, C. Felser1, M. Wojcik2 and V. Ksenofontov11.
Institute of Inroganic and Analytic Chemistry, Johannes
Gutenberg-University, Mainz, Rheinland-Pfalz, Germany; 2.
Institute of Physics, Polish Academy of Sciences, Warszawa,
PolandDT-03. Magnetite/semiconductor based spintronic structures with
MgO tunnel barrier. Y. Lu1, D. Niu1, S. Hassan1, Y. Xu1 and
S. Thompson21. Department of Electronics, University of York,York, United Kingdom; 2. Department of Physics, University ofYork, York, United Kingdom
DT-04. Comparison of the magnetic and electrical properties of (110)and (100)-oriented epitaxial CrO2 films. K.B. Chetry1,3,
W.H. Butler1,3, A. Gupta2,3 and P. Padhan31. Physics andAstronomy, University of Alabama, Tuscaloosa, AL, USA; 2.
Chemistry and Chemical Engineering, University of Alabama,
Tuscaloosa, AL, USA; 3. Center for Materials for Information
Technology, University of Alabama, Tuscaloosa, AL, USA
DT-05. Co2CrxFe1-xSi: A promising Half-metallic Ferromagnet withHigh Spin Polarization and Saturation Magnetization.
S.V. Karthik1,2, A. Rajanikanth1,2, Y.K. Takahashi2 and K. Hono2,11.
Graduate School of Pure and Applied Sciences, University ofTsukuba, Tsukuba, Japan; 2. National Institute of Materials
Science, Tsukuba, Japan119

DT-08. Magnetic and magneto-optical properties of Co2FeSi and
Co2Cr0.6Fe0.4Al Heusler compounds. J. Hamrle1, O. Gaier1,
S. Blomeier1, B. Reuscher2, A. Brodyanski2, M. Kopnarski2,
R. Schäfer3, C. Felser4, M. Jourdan5, G. Jakob5 and
B. Hillebrands11. Fachbereich Physik and Forschungsschwerpunkt
MINAS, Technische Universität Kaiserslautern, Kaiserslautern,
Germany; 2. Institut für Oberflächen- und Schichtanalytik,
Technische Universität Kaiserslautern, Kaiserslautern, Germany;
3. IFW Dresden, Dresden, Germany; 4. Institute of Inorganic andAnalytical Chemistry, Johannes Gutenberberg-Universität Mainz,
Mainz, Germany; 5. Institut für Physik, Johannes GutenberbergUniversität Mainz, Mainz, Germany

DT-09. Room-temperature magnetoresistance in magnetic tunnel
junctions with Fe3O4 electrode. T. Kado1, H. Saito1 andA. Fukushima11. Nanoelectronics, National Institute of Advanced
Industrial Science and Technology, Tsukuba, Ibaraki, Japan

DT-10. Half-Metallic Behavior in Cr Spacer Layers Induced byHeusler Electrodes. M. Williams2, M. Chshiev1, C. Culbert1 and
W. Butler11. MINT Center, University of Alabama, Tuscaloosa, AL,
USA; 2. Department of Mathematics and Computer Sciences,
University of Maryland Eastern Shore, Princess Anne, MD, USA

DT-11. CPP-GMR in Co2MnSi / Cr / Co2MnSi trilayers on various
buffer layers. K. Yakushiji1, K. Saito2, S. Mitani2, K. Takanashi2,
Y.K. Takahashi3 and K. Hono31. Nanoelectronics ResearchInstitute, National Institute of Advanced Industrial Science andTechnology, Tsukuba, Japan; 2. Institute for Materials Research,
Tohoku University, Sendai, Japan; 3. National Institute forMaterials Research, Tsukuba, Japan

DT-12. Magnetic Damping Constants of Heusler Alloy and Co-Fe-B
Alloy. M. Oogane1, M. Watanabe1, R. Yilgin1, S. Yakata1,
Y. Sakuraba1, Y. Ando1 and T. Miyazaki11. Tohoku University,
Sendai, Japan

DT-13. Anisotropic magnetoresistance and planar Hall effect inmagnetite thin films. Y. Bason1, L. Klein1, H. Tang2, J. Hoffman2
and C. Ahn21. Department of Physics, Bar-Ilan University, Ramat
Gan, Israel; 2. Department of Applied Physics, Yale University,
New-Haven, CT, USA

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PROGRAMTUESDAY
AFTERNOON
1:00

PROGRAMGRAND BALLROOM

Session DU

MAGNETO-CALORIC MATERIALS(POSTER SESSION)
Victorino Franco, Session Chair
DU-01. Fe-based amorphous alloys with giant magnetocaloric effectfor room-temperature magnetic refrigerant. Q. Nguyen1,
D. Ngo2,3, V. Vuong3, D. Hoang3, C. Nguyen3, S. Oh1 and S. Yu11.
Department of Physics, Chungbuk National University, 361-763,
Cheongju, South Korea; 2. Department of Physics and Astronomy,
University of Glasgow, G12 8QQ, Glasgow, United Kingdom; 3.
Center for Materials Science, College of Science, Vietnam
National University Hanoi, Hanoi, Viet Nam

DU-02. Enhanced Magnetocaloric effect in single crystalline
Nd0.5Sr0.5MnO3 R. Venkatesh1, M. Pattabiraman1, K. Sethupathi1
and G. Rangarajan11. Low temperature laboratory, Department of
Physics, Indian Institute of Technology, Chennai, Tamilnadu,
India

121

DU-08. Magnetism and Magnetocaloric effect in (DyxGd51,2
1x)Si2Ge2(0≤x≤5) Compounds. S.K. Malik , R. Nirmala ,
1,3
1,4
5
D.C. Kundaliya , A.G. Joshi and A.V. Morozkin 1. Departmentof Condensed Matter Physics and Material Science, Tata Instituteof Fundamental Research, Mumbai, Maharashtra, India; 2.
International Centre for Condensed Matter Physics - ICCMP,
University of Brasilia, Brasilia, Brazil; 3. Center for
Superconductivity Research, University of Maryland, College
Park, MD, USA; 4. National Physical Laboratory, New Delhi,
New Delhi, India; 5. Department of Chemistry, Moscow
Lomonosov State University, Moscow, Russian Federation
DU-09. Effect of Tm substitution on the magnetic and magnetocaloric
properties in the intermetallic compounds (Tb1-x Tmx)Co2
N.K. Singh1, P. Kumar1, K.G. Suresh1 and A.K. Nigam21. Physics,
I.I.T. Bombay, Mumbai, Maharashtra, India; 2. Tata Institute ofFundamental Research, Mumbai, Maharashtra, India
DU-10. Irreversible Field–induced strain Magnetostriction at
Temperatures above and below the Order-Disorder Transitionin Single Crystal Tb5Si2.2Ge1.8. A.P. Ring1, T. Lograsso1,
D. Schlagel1, J.E. Snyder3 and D.C. Jiles31. Materials andEngineering Physics Program, Ames Laboratory, Iowa State
University, Ames, IA, USA; 2. Department of Materials Scienceand Engineering, Iowa State University, Ames, IA, USA; 3.
Wolfson Centre for Magnetics, Cardiff University, Cardiff, CF24
3AA, United Kingdom

DU-03. Magnetocaloric properties of Fe and Ge doped Ni2Mn11
1
1
xCuxGa. M.U. Khan , S. Stadler and N. Ali 1. Physics, Southern
Illinois University, Carbondale, IL, USA

DU-04. Large magnetocaloric effect in LaCaPbMnO3 manganites.
M. Phan1, H. Peng1 and S. Yu21. Department of Aerospace
Engineering, University of Bristol, Bristol BS8 1TR, United
Kingdom; 2. Department of Physics, Chungbuk National
University, Cheongju, 361-763, South Korea

DU-05. Magneto-caloric effect in layer structural Gd5(SixGe1-x)4/Gd
composite materials. M. Yue1, J. Zhang1, H. Zeng1, H. Chen1 and
X. Liu21. The Key Laboratory of Advanced Functional Materials,
Ministry of Education, Beijing University of Technology, Beijing,
China; 2. Center for the physics of materials and Department of
Physics, McGill University, Montreal, QC, Canada

DU-06. Sensitivity of tuning Fe content to magnetic properties andmagnetocaloric effect around phase boundary in La(FexAl12,1221x)13 compounds. F. Hu , B. Shen , J. Sun and J. Gao 1.
Department of Physics, The University of Hong Kong, Hong
Kong, Hong Kong, China; 2. State Key Laboratory of Magnetism,
Institute of Physics, Chinese Academy of Sciences, Beijing
100080, China

DU-07. Magnetocaloric properties in RPtGa with R= Dy,Ho and Er.
L.M. da Silva1, F.G. Gandra1, A.O. dos Santos1, L.P. Cardoso1 and
A.N. Medina21. Physics Institute, University of Campinas,
Campinas, Sao Paulo, Brazil; 2. Physics Institute, State
University of Maringa, Maringa, Parana, Brazil

TUESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session DV

PATTERNED STRUCTURES II(POSTER SESSION)
Tom Thomson, Session Co-chair
Bo Liu, Session Co-chair
DV-01. Large-area Magnetic Antidot Arrays by Triblock Copolymer
Nanolithography: Pattern Transfer Issues. T. Kubo1,2,
J.S. Parker1,3, M.A. Hillmyer4 and C. Leighton11. Chemical
Engineering and Materials Science, University of Minnesota,
Minneapolis, MN, USA; 2. Fuji Electric Advanced Technology
Co., Ltd., Hino, Japan; 3. Physics, University of Minnesota,
Minneapolis, MN, USA; 4. Chemistry, University of Minnesota,
Minneapolis, MN, USA
DV-02. Local Oxidation Nanolithography of Co Thin Films Using
SPM. Y. Tomoda1, S. Nishimura1, J. Shirakashi1 and
Y. Takemura21. Department of Electrical and Electronic
Engineering, Tokyo University of Agriculture and Technology,
Koganei, Tokyo, Japan; 2. Department of Electrical and Computer
Engineering, Yokohama National University, Yokohama,
Kanagawa, Japan

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PROGRAMPROGRAM

DV-03. Hydrogen patterning of perpendicularly magnetized(Ga,Mn)As thin films. L. Thevenard1, A. Lemaître1, A. Miard1,
L. Largeau1, O. Mauguin1, G. Patriarche1, N. Vernier2 andJ. Ferré21. Laboratoire de Photonique et Nanostructures,
Marcoussis, France; 2. Laboratoire de Physique des Solides,
Université Paris-Sud, Orsay, France

DV-11. Quasi-exponential law of the magnetic domain wall depinningfrom a natural defect. J. Attané1, A. Marty1, D. Ravelosona2,
Y. Samson1 and C. Chappert21. Nanostructures and Magnetism,
CEA Grenoble, Grenoble, France; 2. IEF, CNRS, Orsay, France

DV-04. Thermal stability of nanostructured trilayer synthetic
antiferromagnets. J. Han1, K. Shin2 and S. Lim11. Materials
Science and Engineering, Korea University, Seoul, South Korea;
2. Nano Device Research Center, Korea Institute of Science andTechnology, Seoul, South Korea

DV-05. Domain wall injection study in spin valve system with different
geometry reservoir. K. Cheng1,2, C. Yu2, Y. Chen3, D. Chen2,
S. Lee2, Y. Liou2, J. Huang1 and Y. Yao21. Department of Materials
Science and Engineering, National Tsing-Hua Univ., Hsinchu,
Taiwan; 2. Institute of Physics., Academia Sinica., Taipei, Taiwan;
3. Department of Physics, National Taiwan Univ., Taipei, Taiwan

DV-06. Effect of inhomogeneous spin configurations on spin wave
modes. D.Y. Tse1, S.J. Steinmuller1, T. Trypiniotis1 andJ.C. Bland11. Department of Physics, University of Cambridge,
Cambridge, United Kingdom

DV-07. Spin structures of geometrically-confined domain walls.
M. Klaui1, M. Laufenberg1, D. Bedau1, D. Backes1,2,
L.J. Heyderman2, F. Nolting2, S. Cherifi3, S. Heun3, A. Locatelli3,
C.F. Vaz4, J.C. Bland4, T. Kasama5, F. Junginger1,5, R. DuninBorkowski5 and U. Rudiger11. Physics, University of Konstanz,
Konstanz, Germany; 2. Paul Scherrer Institut, Villigen,
Switzerland; 3. Sincrotrone Trieste, Basovizza, Italy; 4. Cavendish
Laboratory, University of Cambridge, Cambridge, United
Kingdom; 5. Department of Materials Science and Metallurgy,
University of Cambridge, Cambridge, United Kingdom

DV-08. The magnetic properties of nanoscale anti-structure arrays.
C. Wang1, N. Singh2 and A.O. Adeyeye11. Electrical andComputer Engineering, National University of Singapore,
Singapore, Singapore; 2. Institute of Microelectronics, Singapore,
Singapore123

DV-12. Domain wall width and velocity behaviors in notchedmagnetic devices. S. Kim1, B. Chun1 and Y. Kim11. Materials
Science and Engineering, Korea University, Seoul, South Korea

DV-13. Switching field study by domain wall injection of thepermalloy wires with step structures. C. Yu1, S.H. Wu1, Y. Liou1,
Y.S. Chen2, K.W. Cheng1, D.C. Chen3 and Y.D. Yao11. physics,
academica sinica, Taipei, Taiwan; 2. physics, National Taiwan
university, Taipei, Taiwan; 3. Materials Science & Engineering,
National Chiao Tung University, Hsinchu, Taiwan

DV-14. Creation and manipulation of surface magnetic moment flips.
J. Lin1, J. Chen1, S. Wu1, Y. Ma1, Y. Liou2 and W. Su21. Physics,
National Dong Hwa University, Hualien, Taiwan; 2. Institute ofPhysics, Academia Sinica, Taipei, Taiwan

DV-15. Electrical voltage manipulation of ferromagnetic microdomain
structures in a ferromagnetic/ferroelectric hybridstructure.
T. Taniyama1, K. Akasaka1, D. Fu2,1, M. Itoh1 and H. Takashima31.
Materials and Structures Laboratory, Tokyo Institute ofTechnology, Yokohama, Japan; 2. ERATO, Japan Science andTechnology Agency, Kawaguchi, Japan; 3. National ResearchInstitute of Advanced Industrial Science and Technology, Tsukuba,Japan

DV-16. Observation of multiple transitions on permalloy ring using
magnetic force microscopy. L. Lin1, C. Chang1, C. Kuo1,
C. Chang2 and J. Wu11. Physics, National Changhua University of
Education, Changhua City, Taiwan; 2. Physics, National Taiwan
University, Taipei, Taiwan

DV-17. Size dependence of reversal mechanisms in permalloy ellipses.
Z. Wei2, M. Lai1, J. Wu3 and C. Chang11. National Taiwan
University, Taipei, Taiwan; 2. National Tsing Hua University,
Hsinchu, Taiwan; 3. National Changhua University of Education,
Changhua, Taiwan

DV-09. Magnetic properties and domain formation in hybrid
magnetic thin films. J. McCord1, J. Fassbender2, I. Mönch1,
R. Kaltofen1, A. Mücklich2, A. Gerber3, E. Quandt3 and
L. Schultz11. IFW Dresden, Dresden, Germany; 2. FZ Rossendorf,
Dresden, Germany; 3. FZ CAESAR, Bonn, Germany

DV-18. Parallel pumping in ferromagnetic metal stripes. M. Kostylev1,
J. Hu2,1 and R.L. Stamps11. School of Physics, University ofWestern Australia, Crawley, WA, Australia; 2. Physics Department,
Yangzhou University, Yangzhou, China

DV-10. Influence of IrMn Exchange Bias Layer on the Magnetic
Properties of Half Ring NiFe Micron Structures. A. Chen1,2,
L. Chang1,2, K. Cheng1 and S. Lee1,21. Institute of Physics,
Academia Sinica, Taipei, Taiwan; 2. Institute of Optoelectronic
Sciences, National Taiwan Ocean University, Keelung, Taiwan

DV-19. Size and (Py film) thickness dependencies of ferromagnetic
resonance in nanoscale antidot arrays. M. Yu1, L. Malkinski1,
S.L. Whittenburg1, W. Zhou1 and J.B. Wiley11. Advanced
Materials Research Institute, University of New Orleans, New
Orleans, LA, USA

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PROGRAMTUESDAY
AFTERNOON
1:00

PROGRAMGRAND BALLROOM

Session DW

SPIN TRANSPORT IN SPIN VALVES AND
NANOSTRUCTURES(POSTER SESSION)
Ruihua Cheng, Session Chair
DW-01. Title: Effect of Cu interdiffusion on the Electromigration
failure of FM/Cu/FM trilayers for spin valve read sensors.
J. Jiang1, S. Kim1 and S. Bae11. Biomagnetics Lab, Electricaland Computer Engineering, National University of Singapore,
Singapore, Singapore
DW-02. Study of spin valves with different L10 FePt pinned layers.
H. Zhao1, Z. Zhang1, B. Ma1 and Q. Jin11. Department of Optial
Science and Engineering, Fudan University, Shanghai, China
DW-03. Comparison between top and bottom NiO-pinning spin
valves: correlation between the extraordinary Hall effect andresistivity. J. Zhang1, J. Du1, X. Bai1, L. Sun1, B. You1, X. Wu1,
H. Sang1, A. Hu1 and S. Zhou21. Physics, Nanjing Unversity,
Nanjing, Jiangsu, China; 2. Surface Physics Laboratory(National Key Laboratory) and Department of Physics, Shanghai,
China
DW-04. Transport of spins in magnetic multilayers. K. Akabli1,
H.T. Diep1 and S. Reynal11. Laboratoire de Physique Théoriqueet Modélisation, Université de Cergy-Pontoise, Cergy-Pontoise,France
DW-05. The Effects of Ruthenium and Grain Size on Spin Valves with
Ultra Thin Antiferromagnetic Pinning Layers. W. Buchanan1,
D. Draganova1, C. Furjanic1, W. Gannett1, P.D. Sparks1, M. Carey2
and J.C. Eckert11. Physics, Harvey Mudd College, Claremont,
CA, USA; 2. Hitachi Global Storage Technologies, San Jose, CA,
USA
DW-06. Lateral spin valve in a concentric-ring structure. D. Chen2,1,
C. Yu1, S. Lee1 and Y. Yao11. Institute of Physics, Academia
Sinica, Taipei, Taiwan; 2. Material Science and Engineering,
National Chiao Tung University, Hsinchu, Taiwan
DW-07. Electron Transport through Disordered Domain Walls:
Coherent and Incoherent Regimes. P.E. Falloon1,2,
R.A. Jalabert2, D. Weinmann2 and R. Stamps11. Physics,
University of Western Australia, Crawley, WA, Australia; 2.
IPCMS, CNRS, Strasbourg, France
DW-08. Magnetoresistance characterization of NiFe films with aplanar point contact. Y. Ohsawa1,21. CR&D center, Toshibacorp., Kawasaki, Japan; 2. RIEC, Tohoku University, Sendai,
Japan

125

DW-09. Time-Varying Magnetoresistance in Highly Resistive Fe/Fe-O
Core-Shell Nanoparticle Assemblies. H. Sakuma1, H. Aoshima1,
T. Kobayashi1, T. Taniyama2 and K. Ishii11. Utsunomiya
University, Utsunomiya, Japan; 2. Tokyo Institute of Technology,
Yokohama, Japan

DW-10. High Frequency Magnetoimpedance and Permeability in
Py/FeMn/Ta Exchange Biased Films. R.B. da Silva1,
A.D. Viegas2, M.A. Corrêa1, V.P. Nascimento3, E.B. Saitovitch3
and R.L. Sommer31. Departamento de Física, UFSM, Santa
Maria, RS, Brazil; 2. Departamento de Física, UFSC,
Florianópolis, SC, Brazil; 3. CBPF, Rio de Janeiro, RJ, Brazil
DW-11. Photoemission study of manganite/Alq3 interface. Y. Zhan1,
I. Bergenti1, E. Arisi1, A. Riminucci1, L.E. Hueso1 and
V. Dediu11. ISMN CNR, Bologna, Italy

DW-12. Structural and Magnetism Considerations for CoFe/Cr pinNOL by comparison of Co-rich and Fe-rich NOLs on CIPGMR and Hex of SPSV systems. H. Endo1, K. Sawada1,
M. Doi1, N. Hasegawa2 and M. Sahashi11. Electronic
Engineering, Tohoku University, Sendai, Japan; 2. ALPS Electric
Corporation, Niigata, Japan

DW-13. WITHDRAWN

DW-14. Transport properties of low coupling field spin valves:
Dependencies on spacer thickness, deposition rate andtemperature. J.M. Teixeira1, J. Ventura1, R. Fermento1,
J.P. Araújo1, J.B. Sousa1, S. Cardoso2 and P.P. Freitas21. FCUP,IFIMUP, Porto, Portugal; 2. INESC-MN, Lisbon, Portugal

TUESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session DX

MAGNETO-OPTIC AND MAGNETO-ELASTIC
MATERIALS(POSTER SESSION)
Radek Lopusnik, Session Chair
DX-01. Magnetic Properties of Aluminium-substituted R-T
Deuterides Ho6(Fe, Al)23Dz J. Ostoréro1 and M. Guillot21. UPR
209, CNRS, Thiais Cedex, France; 2. LCMI, CNRS, Grenoble
Cedex, France

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PROGRAMPROGRAM

DX-02. Faraday-like magneto-optical effect of one-dimensional
magnetic grating. J. Kim1, G. Lee1, Y. Lee1, J. Rhee2, K. Kim3
and C. Yoon41. Quantum Photonic Science Research Center and
BK21 Program Division of Advanced Research and Education in
Physics, Hanyang University, Seoul, South Korea; 2. BK21
Physics Research Division and Institute of Basic Science,
Sungkyunkwan University, Suwon, South Korea; 3. Department of
Physics, Sunmoon University, Asan, South Korea; 4. Departmentof Materials Science and Engineering, Hanyang University,
Seoul, South Korea

DX-09. Effect of Mn substitution on some properties of spinel
CoFe2O4 prepared by citrate method. M.N. Palamaru1,
A.R. Iordan1, I. Dumitru2 and O. Caltun21. Faculty of Chemistry,“Alexandru Ioan Cuza” University, Iasi, Romania; 2. Department
of Solid State and Theoretical Physics, “Alexandru Ioan Cuza”
University, Iasi, Romania

DX-03. Enhanced Kerr effect with high reflectance in onedimensional asymmetric magnetic photonic crystals withthree defects. Y. Lu1, M. Huang1, S. Park1, P. Kim1, Y. Lee1 andJ. Rhee21. Quantum Photonic Science Research Center and BK21
Program Division of Advanced Research and Education in
Physics, Hanyang University, Seoul, South Korea; 2. BK21
Physics Research Division and Institute of Basic Science,
Sungkyunkwan University, Suwon, South Korea
DX-04. Perpendicular Magnetic Properties of Rare Earth-Transition
Metal Thin Film Using Pulse Electrodeposition Technique.
M. Shu1, T. Wu2 and C. Yang31. Graduate School of Engineering
Science and Technology (Doctoral Program), National Yunlin
University of Science and Technology, Touliu, Yunlin, Taiwan; 2.
Taiwan SPIN Research Center, National Yunlin University of
Science and Technology, Touliu, Yunlin, Taiwan; 3. Department ofChemical Engineering, National Yunlin University of Science andTechnology, Touliu, Yunlin, Taiwan
DX-05. Enhancement of Modulation Rate of Magneto-Optical Spatial
Light Modulators with Magnetophotonic Crystals.
K. Takahashi1, H. Takagi2, K. Shin1,3, H. Uchida1, P. Lim1 and
M. Inoue1,41. Dept. Electrical and Electronic Engineering,
Toyohashi University of Technology, Toyohashi, Japan; 2. Toyota
National College of Technology, Toyota, Japan; 3. Kyungsung
University, Pusan, South Korea; 4. JST-CREST, Kawaguch, Japan
DX-06. Magneto-optical Properties of CoFe2-xGaxO4 S. Lee1, S. Song2,3,
C. Lo1, S.T. Aldini2 and D.C. Jiles41. Center for Nondestructive
Evaluation, Iowa State University, Ames, IA, USA; 2. Materials
and Engineering Physics Program, Ames Laboratory, US Dept. ofEnergy, Iowa State University, Ames, IA, USA; 3. Department ofMaterials Science and Engineering, Iowa State University, Ames,
IA, USA; 4. Wolfson Centre for Magnetics, Cardiff University,
Cardiff, Cardiff CF24 3AA, United Kingdom
DX-07. Magneto-optical energy gap of MnZnFe2O4 magnetic thinfilm with nanohole arrays on PAA/GaN/sapphire multiple
thin films. C. Hsu1 and H. Liu11. Mechanical department, Chung
Cheng Institute of Technology, Taoyuan, Taiwan

127DX-10. Magnetic and magnetoelastic behavior of Mn substituted
CoFe2O4. S.D. Bhame1 and P.A. Joy11. Physical and Materials
Chemistry Division, National Chemical Laboratory, Pune,
Maharashtra, India; 2. Physical and Materials Chemistry
Division, National Chemical Laboratory, Pune, Maharashtra,
India
DX-11. 1600 ppm Unloaded Magnetostriction in Epoxy-Bonded
Terfenol-D Continuous-Fiber Composites with [112]
Crystallographic Orientation. C. Lo1, S. Or1 and H. Chan11.
Department of Applied Physics, The Hong Kong Polytechnic
University, Kowloon, Hong Kong
DX-12. Magnetomechanical performance of directionally solidified
Fe-Ga alloys. X.. Zhao1, D.G. Lord1 and N.J. Mellors11. Institutefor Materials Research, University of Salford, Salford, United
Kingdom
DX-13. Magnetism and phase transition of NiTi shape memory alloys.
B. Hou1, Q. Zhou1, S. Mao1, Y. Ma2, F. Liu1 and X. Han11.
College of Applied Sciences, Beijing University of Technology,
Beijing, Beijing, China; 2. Institute of Physics, Chinese Academyof Science, Beijing 100080, China, Beijing, China
DX-14. MAGNETO-ACOUSTIC PROPERTIES OF SELF BIASEDTERFENOL-D 2-2 COMPOSITES. L. Garcia-Gancedo1,
S.C. Busbridge1, P. Pernod2 and V. Preobrazhensky21. School ofEngineering, University of Brighton, Brighton, East Sussex,
United Kingdom; 2. IEMN-DOAE, Ecole Centrale de Lille,
Villeneuve d’Ascq Cedex, France
DX-15. Structure and magnetic properties of melt-spun ribbons of
Tb0.27Dy0.73Fex alloys. X. Meng1, Y. Li1, H. Liu1, Z. Lu1,
J. Qu1, X. Xu1 and Y. Zhao11. Hebei University of Technology,
Tianjin, China

TUESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session DY

HARD MAGNETIC FILMS(POSTER SESSION)
Alejandra Lukaszew, Session Chair

DX-08. Stress dependence of the magnetic domains in FeCoSiB
amorphous thin films. B. Peng1, Q. Xie1, W. Zhang1, H. Jiang1
and W. Zhang11. State Key Laboratory of Electronic Thin Films
and Integrated Devices, University of Electronic Science andTechnology of China, ChengDu, SiChuan, China

DY-01. Magnetic properties of epitaxial Nd-Fe-B films on Mo buffer
deposited on different substrates. A. Kwon1, S. Faler1, V. Neu1
and L. Schultz11. institute for the metallic materials, IFWDresden, Dresden, Germany

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PROGRAMPROGRAM

DY-02. An effective route to fabricate RE-Fe-B thin films with highly
c-axis texture and excellent permanent magnetic properties.
S. Tang1, M. Gibbs2 and H. Davies21. Department of Physics,
Nanjing University, Nanjing, Jiangsu, China; 2. Department ofEngineering Materials, University of Sheffield, Sheffield, United
Kingdom

DZ-03. Magnetic Characterization of the (Zr,Sm)Co3 phase in
Sm(CoFeCuZr)z magnets. M.F. de Campos1, R.K. Murakami2,
S.A. Romero3, H.R. Rechenberg3 and F.P. Missell1,41. Dimat Predio 3, Inmetro, Duque de Caxias RJ, RJ, Brazil; 2.
Universidade Federal do ABC, Santo André, SP, SP, Brazil; 3.
Instituto de Física, Universidade de São Paulo, São Paulo, SP, SP,
Brazil; 4. Universidade de Caxias do Sul, Caxias do Sul RS, RS,
Brazil

DY-03. Enhancement in coercivity of PLD-made Nd-Fe-B thick film
magnets by high-speed crystallization. H. Takeda1, S. Sato1,
T. Yanai1, M. Nakano1, H. Fukunaga1 and F. Yamashita21.
Nagasaki University, Nagasaki, Japan; 2. Motor R&D Lab.
Matsushita Electric Industrial Co. Ltd., Osaka, Japan129

DZ-04. Fine pole-pitch magnetizing method for Nd-Fe-B isotropic
magnet with high coercivity. H. Komura1, M. Kitaoka1,
T. Kiyomiya1 and Y. Matsuo11. R & D, FDK Corporation, Kosai,
Japan

DY-04. THE Co CONTENT AND STRATIFICATION EFFECT ON
THE MAGNETIC PROPERTIES, MICROSTRUCTURE
AND PHASE EVOLUTION OF [NdFeBNbCu/Co]xn THINFILMS. H. Chiriac1, M. Grigoras1 and M. Urse11. MDM,NIRDTP Iasi, Iasi, Romania

DZ-05. Demagnetization of high-performance permanent magnets
with superconducting magnet. S. Kato1, G. Kido1 andN. Kishimoto11. National Institute for Materials Science,
Tsukuba, Japan

DY-05. Structural and magnetic properties of 5μm thick sputter
deposited SmCo films. A. Walther1,2, K. Khlopkov3,
O. Gutfleisch3, D. Givord1 and N.M. Dempsey11. Laboratoire
Louis Néel, CNRS, Grenoble, France; 2. LCMS, CEA-LETI,
Grenoble, France; 3. IFW Dresden, Institute of Metallic
Materials, Dresden, Germany

TUESDAY
AFTERNOON
1:00

DY-06. Development of nano-structured, stress-free Co-rich CoPtP
films for magnetic MEMS applications. S. Kulkarni1 and
S. Roy11. Energy Processing for ICT, Tyndall National Institute,Cork, Ireland

TUESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session DZ

MAGNETIZATION PROCESSES AND
MAGNETIC CHARACTERIZATION(POSTER SESSION)
Jian-Ping Wang, Session Chair
DZ-01. Pinning in Epitaxial Exchange Coupled SmCo5 Films.
A. Singh1, V. Neu1, S. Fahler1, K. Nenkov1, L. Schultz1 andB. Holzapfel11. IFW Dresden, Institute for Metallic Materials,
Dresden, Germany
DZ-02. Self-Pinning: the dominant coercivity mechanism in
exchange-coupled nanomagnets? G. Zhao1,2 and X. Wang21.
Institute of Solid State Physics, Sichuan Normal University,
Chengdu, Sichuan, China; 2. Institute for Superconducting andElectronic Materials, University of Wollongong, Wollongong,
NSW, Australia

GRAND BALLROOM

Session DAA

HARD MAGNETIC MATERIALS(POSTER SESSION)
Ichiro Takeuchi, Session Chair
DAA-01. HIGH MAGNETIC FIELD PROPERTIES OF YTTRIUMSUBSTITUTED Ho6Fe23 ALLOYS AND DEUTERIDES.
J. Ostoréro1 and M. Guillot21. UPR 209, CNRS, 94320 Thiais
Cedex, France; 2. Grenoble High Magnetic Field Laboratory,
CNRS, GRENOBLE Cedex 9, France
DAA-02. 119Sn hyperfine fields in ErMn6Sn6-xGax L.K. Perry1,
D.H. Ryan1 and G. Venturini21. Physics, McGill, Montreal, QC,
Canada; 2. Laboratoire de Chimie du Solide Minéral,Université Henri Poincaré-Nancy I, Vandoeuvre les Nancy,
Cedex, France
DAA-03. Spin flop transition driven by exchange springs in
ErFe2/YFe2 multilayers. K.N. Martin1, J.P. Zimmermann2,
K. Wang1, G.J. Bowden1, A.A. Zhukov1, H. Fangohr2, R. Ward3
and P. de Groot11. School of Physics and Astronomy, Universityof Southampton, Southampton, Hampshire, United Kingdom; 2.
Computational Engineering and Design Group, School ofEngineering Sciences, University of Southampton,
Southampton, Hampshire, United Kingdom; 3. Clarendon
Laboratory, Oxford University, Oxford, Oxfordshire, United
Kingdom
DAA-04. Anomalous magnetic properties of Er2Ni17 D. Banerjee1,
P. Kumar1, K. Suresh1 and A.K. Nigam21. Department of
Physics, IIT Bombay, Mumbai, Maharashtra, India; 2. Tata
Institute of Fundamental Research, Mumbai, Maharashtra,
India

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PROGRAMPROGRAM

DAA-05. Anomalous Magnetic Age Hardening in a Co-Ni-Al
Ferromagnetic Shape Memory Alloy. T.M. Apple1, E.A. Lass1,
G.J. Shiflet1 and W.A. Soffa11. Materials Science &Engineering, University of Virginia, Charlottesville, VA, USA

9:36

DAA-06. Magnetic anisotropy and high coercivity of epitaxial Coferrite films prepared by pulsed laser deposition. J. Yin1,2,
J. Ding1, B. Liu1, J. Yi1, X. Miao2 and J. Chen1,21. Department ofmaterials science and engineering, National University ofSingapore, Singapore, Singapore; 2. Data Storage Institute,Singapore, Singapore

131

EA-02. Evidence for WKB Failure in Contemporary Magnetic Tunnel
Junctions. (Invited) C.W. Miller1, Z. Li1, I.K. Schuller1,
R.W. Dave2, J.M. Slaughter2 and J. Akerman31. Physics,
University of California, San Diego, La Jolla, CA, USA; 2.
Technology Solutions Organization, Freescale Semiconductor,
Inc., Chandler, AZ, USA; 3. Department of Microelectronics andApplied Physics, Royal Institute of Technology, Kista, Sweden
10:12

TUESDAYEVENING
7:30

HARBORSIDE

EA-03. Interfacial oxides and oxide order in MgO based magnetic
tunnel junctions. (Invited) R. Buhrman1, J.C. Read1 andP.G. Mather11. Center for Nanoscale Systems, Cornell University,
Ithaca, NY, USA

Session YA

10:48

SYMPOSIUM ON MAGNETIC MEMORIES,PAST AND PRESENT
William Gallagher, Session Chair
7:30

EA-04. High temperature properties of MgO based magnetic
tunneling junctions. (Invited) G. Xiao11. Dept. of Physics, Brown
University, Providence, RI, USA
11:24

YA-01. Magnetic Memories and Especially Magnetic Bubbles – AnHistorical Perspective. (Invited) R. Fontana1 and B. Doyle21.
Hitachi Global Storage Technologies, San Jose, CA, USA; 2.
University of Alabama, Tuscaloosa, AL, USA
8:50
YA-02. MRAM: From Concept to First Commercialization and
Beyond. (Invited) B.N. Engel11. Freescale Semiconductor, Inc.,
Chandler, AZ, USA

WEDNESDAY
MORNING
9:00

HARBORSIDE C

EA-05. Polarity dependent and barrier parameter driven reliability ofmagnetic tunnel junctions. (Invited) J. Akerman11. Departmentof Microelectronics and Applied Physics, Royal Institute ofTechnology, Kista, Sweden

WEDNESDAY
MORNING
9:00

HARBORSIDE A

Session EB

PERPENDICULAR MEDIA
Hiroaki Muraoka, Session Chair
Session EASYMPOSIUM ON INTERFACES IN MAGNETICTUNNEL JUNCTIONS

9:00

Amanda Petford-Long, Session Chair

EB-01. Small Angle Neutron Scattering Measurements of the Local
Magnetic Structure of Perpendicular Recording Media.
(Invited) S.L. Lee1, M.P. Wismayer1, S.J. Lister1, T. Thomson2,
C.D. Dewhurst3, J. Kohlbrecher4, S. Weekes5 and F.Y. Ogrin51.
School Of Physics and Astronomy, University of St Andrews, St
Andrews, Fife, United Kingdom; 2. Hitachi San Jose ResearchCentre, San Jose, CA, USA; 3. Large Scale Structures Group,
Institute Laue Langevin, Grenoble, France; 4. Laboratory for
Neutron Scattering, ETH & PSI, Villigen, Switzerland; 5.
Department of Physics, University of Exeter, Exeter, United
Kingdom

9:00
EA-01. Theory of Tunneling in Epitaxial Magnetic Tunnel Junctions.
(Invited) W.H. Butler1,2, X. Zhang3, T.C. Schulthess3,
J.M. Maclaren4, M. Chshiev1 and S. Vutukuri1,21. MINT Center,
University of Alabama, Tuscaloosa, AL, USA; 2. Department of
Physics, University of Alabama, Tuscaloosa, AL, USA; 3. ORNL,Oak Ridge, TN, USA; 4. Tulane University, New Orleans, LA, USA

132

PROGRAMPROGRAM

133

9:36

11:00

EB-02. Magnetic-Recording Patterns of CoPtCr-SiO2 PerpendicularMedia at Linear Density of 1,500 kfci. M. Kitano1,
E. Miyashita1, N. Hayashi1 and S. Takenoiri21. NHK
Science&Technical Research Laboratories, Tokyo, Japan; 2. Fuji
Electric Device Technology Co.,Ltd, Nagano, Japan

EB-09. Recording simulations on gradient media for densities up to 1
Tbit/in2 T. Schrefl1, D. Suess2, A. Goncharov1, O. Ertl2, G. Hrkac1,
S. Bance1, F. Dorfbauer2 and J. Fidler21. Engineering Materials,
University of Sheffield, Sheffield, United Kingdom; 2. Solid State
Physics, Vienna University of Technology, Vienna, Austria
11:12

9:48

EB-03. CORRELATION OF SIGNAL AND SNR THERMALDECAY. B.F. Valcu1, R. Brockie1, N.H. Yeh1 and H.J. Richter11.
seagate technology, fremont, CA, USA
10:00
EB-04. Energy Barriers in Composite Media Grains. B.H. Lengsfield1
and H. Bertram11. Hitachi GST San Jose Research Center, San
Jose, CA, USA
10:12

EB-10. Optimization of exchange spring media with gradual changing
anistropy. G. Zimanyi2, D. Suess1, T. Schrefl3 and J. Fidler11.
Institut of Solid State Physics, Technical University of Vienna,
Vienna, Austria; 2. Physics Department, University of California,
Davis, CA, USA; 3. Department of Enginering Materials,
University of Sheffield, Sheffield, United Kingdom
11:24
EB-11. Effect of dual magnetic layer on performance in CoCrPt-SiO2
perpendicular media. Y. Hirayama1 and I. Tamai11. Central
Research Laboratory, Hitachi, Ltd., Odawara, Kanagawa, Japan
11:36

EB-05. SNR and Microstructure Improvement of CoCrPt-SiO2 Based
Capping layer Perpendicular Media by Stacked Ru
Underlayer with NSL. R. Mukai1 and T. Uzumaki11. Advanced
Magnetic Recording Lab., Fujitsu Laboratories Ltd., Atsugi,
Japan
10:24

EB-12. A New Method of Producing Small Grain Ru Intermediate
Layers for Perpendicular Magnetic Media. H. Yuan1,2, Y. Qin1,3
and D.E. Laughlin1,21. Data Storage Systems Center, Pittsburgh,
PA, USA; 2. Materials Science and Engineering, Carnegie Mellon
University, Pittsburgh, PA, USA; 3. Electrical and Computer
Engineering, Carnegie Mellon University, Pittsburgh, PA, USA
11:48

EB-06. The Effects of Post-deposition Annealing on theMicrostructure and Magnetic Properties of Percolated
Perpendicular Media. Y. Qin1,2, Y. Peng1,2, D.E. Laughlin1,3 andJ. Zhu1,21. Data Storage Systems Center, Carnegie Mellon
University, Pittsburgh, PA, USA; 2. Electrical and Computer
Engineering Department, Carnegie Mellon University, Pittsburgh,
PA, USA; 3. Materials Science and Engineering Department,
Carnegie Mellon University, Pittsburgh, PA, USA

EB-13. CoCrPtO-based Granular Composite Perpendicular
Recording Media. H. Jung1, E.M. Velu1, S.S. Malhotra1,
U. Kwon2, D. Suess3 and G. Bertero11. Komag Inc., San Jose, CA,
USA; 2. Materials and Engineering, Stanford University,
Stanford, CA, USA; 3. Institute of Solid State Physics, Vienna
University of Technology, Vienna, Austria

10:36
1

EB-07. Continuous/Cluster-Pinned Recording Media. R. Skomski ,M.L. Yan1, Y.F. Xu1 and D.J. Sellmyer11. Department of Physics
and Astronomy and Nebraska Center for Materials andNanoscience, University of Nebraska, Lincoln, NE, USA

WEDNESDAY
MORNING
9:00

HARBORSIDE B

Session EC

III-V MAGNETIC SEMICONDUCTORS
10:48

EB-08. The effect of intrinsic magnetic properties of negative−Kumaterial for p−/n−Ku stacked ECC media. N. Itagaki1, S. Saito1,
A. Hashimoto1 and M. Takahashi1,21. Department of Electronic
Engineering, Graduate School of Engineering, Tohoku University,
Sendai, Japan; 2. New Industry Creation Hatchery Center, Tohoku
University, Sendai, Mitagi, Japan

Ezekiel Johnston-Halperin, Session Chair
9:00
EC-01. Giant anisotropic magnetoresistance in ultrathin GaMnAs
films. R. Gareev1, M. Döppe1, J. Sadowski1, W. Wegscheider1 andD. Weiss11. Institute of Experimental and Applied Physics,
Regensburg, Germany

134

PROGRAMPROGRAM

135

9:12

10:24

EC-02. Coulomb blockade anisotropic magnetoresistance effect in a
(Ga,Mn)As single-electron transistor. J. Wunderlich1,
T. Jungwirth2,3, A.C. Irvine4, B. Kaestner5, A.B. Shick2,
R.P. Campain3, B.L. Gallagher3 and D.A. Williams11. Hitachi
Cambridge Laboratory, Cambridge, United Kingdom; 2. Instituteof Physics ASCR, Praha 6, Czech Republic; 3. School of Physics
and Astronomy, University of Nottingham, Nottingham, United
Kingdom; 4. Microelectronics Research Centre, University ofCambridge, Cambridge, United Kingdom; 5. National PhysicalLaboratory, Teddington, United Kingdom

EC-08. Nucleation and collapse of domains with reverse
magnetization in (Ga,Mn)As epilayers with perpendicularmagnetic easy axis. A. Dourlat1, V. Jeudy1, C. Gourdon1,
C. Testelin1, K. Khazen1, J. Cantin1, H. von Bardeleben1,
L. Thevenard2 and A. Lemaïtre21. Institut des Nanosciences deParis, CNRS-University Paris 6, Paris, France; 2. Laboratoire de
Photonique et Nanostructures, CNRS, Marcoussis, France

10:36

9:24

EC-03. Atomic Spin Scattering and Giant Magnetoresistance inMagnetic Semiconductors. M.G. Foygel1 and A.G. Petukhov11.
Physics, South Dakota School of Mines and Technology, Rapid
City, SD, USA

9:36

EC-04. Spin-dependent transport in metal-insulator-semiconductor
Fe/ZnSe/Ga1-xMnxAs magnetic tunnel diodes. H. Saito1,
Y. Hamada2, Y. Suzuki2,1, S. Yuasa1 and K. Ando11.
Naloelectronics Reserach Institute, AIST, Tsukuba, Ibaraki,
Japan; 2. Graduate School of Engineering Science, Osaka
University, Osaka, Japan

9:48

EC-05. Control of magnetism in (Ga,Mn)As by electric-field.
D. Chiba1,2, F. Matsukura2,1 and H. Ohno2,11. ERATO
Semiconductor Spintronics Project, Japan Science andTechnology Agency, Sendai, Miyagi, Japan; 2. Research Instituteof Electrical Communication, Tohoku university, Sendai, Miyagi,Japan

EC-09. Discerning intrinsic properties of diluted magnetic
semiconductors by the anomalous Hall Effect. H.K. Choi1,
Y.S. Kim2, S.S. Seo3, I.T. Jeong4, W.O. Lee1, S.W. Cho1, Y.S. Oh1,
K.H. Kim1, J.C. Woo2, T.W. Noh3, Z.G. Khim2, S.H. Chun4 and
Y. Park11. CSCMR and Department of Physics & Astronomy,
Seoul National University, Seoul, South Korea; 2. Department of
Physics & Astronomy, Seoul National University, Seoul, South
Korea; 3. ReCOE and Department of Physics & Astronomy, Seoul
National University, Seoul, South Korea; 4. Department of
Physics and Institute of Fundamental Physics, Sejong University,
Seoul, South Korea

10:48

EC-10. Properties of (Ga,Mn)As codoped with Si. T. Tanikawa1,2,
F. Matsukura2,1 and H. Ohno2,11. ERATO Semiconductor
Spintronics Project, Japan Science and Technology Agency,
Sendai, Miyagi, Japan; 2. Laboratory for Nanoelectronics andSpintronics, Research Institute of Electrical Communication,
Tohoku University, Sendai, Miyagi, Japan

11:00

10:00

EC-11. Exchange Bias and Coercivity in (Ga,Mn)As/MnO Bilayer
Structures. Z. Ge1, W. Lim1, Y. Cho1, X. Liu1, J.K. Furdyna1 and
M. Dobrowolska11. Physics, University of Notre Dame, Notre
Dame, IN, USA

EC-06. Magnetic Anisotropy, Spin Pinning and Exchange Constantsof (Ga,Mn)As films. Y. Zhou1, Y. Cho1, Z. Ge1, X. Liu1,
M. Dobrowolska1 and J.K. Furdyna11. Department of Physics,
UNIVERSITY OF NOTRE DAME, Notre Dame, IN, USA

11:12

10:12

EC-07. Low frequency 1/f and random telegraph noise in (Ga,Mn)As
epilayers. M. Zhu1, X. Li1, G. Xiang1 and N. Samarth11. Physics,
Penn State University, University Park, PA, USA

EC-12. Neutron Reflectivity Study of the Anomalous Magnetization
Shift in MnO/GaMnAs Bilayers. B.J. Kirby1,2, J. Borchers1,
M. Fitzsimmons2, Z. Ge3, X. Liu3 and J. Furdyna31. Center for
Neutron Research, NIST, Gaithersburg, MD, USA; 2. Lujan
Neutron Scattering Center, Los Alamos National Laboratory, Los
Alamos, NM, USA; 3. Physics, University of Notre Dame, Notre
Dame, IN, USA

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PROGRAMPROGRAM

11:24

9:36

EC-13. Unusual Room Temperature Ferromagnetism in GaP Dopedwith Copper. F. Owens1, A. Gupta2, K.V. Rao2, Z. Iqbal3,
R. Ahuja4,2 and J.M. Osorio Guille41. Army Armament Research,
Development and Engineering Center, Army Armament Research,
Development and Engineering Center, Picatinny, NJ, USA; 2.
Materials Science and enigneering, Royal Institute of Technology,
Stockholm, Sweden; 3. Department of Chemistry, New Jersey
Institute of Technology, Newark, NJ, USA; 4. Condensed Matter
Theory Group, Department of Physics, Uppsala University,
Uppsala, Sweden

ED-04. Thermal effects on domain wall depinning from a single
notch. E. Martinez1, L. Lopez-Diaz2, L. Torres2, C. Tristan2 andO. Alejos31. Electromechanics Engineering, University of Burgos,
Burgos, Spain; 2. Applied Physics, University of Salamanca,
Salamanca, Spain; 3. Electricity and Electronics, University ofValladolid, Valladolid, Spain

WEDNESDAY
MORNING
9:00

HARBORSIDE D

137

9:48

ED-05. Relation Between Damping, Current-Induced Forces And
Wall Resistance For Domain Walls In Magnetic Nanowires.
L. Berger11. Physics Dept., Carnegie Mellon University,
Pittsburgh, PA, USA
10:00

Session ED

SPIN TORQUE: DOMAIN WALLS
Shufeng Zhang, Session Chair

ED-06. Dissipative dynamics of domain walls in submicron
ferromagnetic strips. O.A. Tretiakov1, Y.B. Bazaliy2,1 andO. Tchernyshyov11. Physics and Astronomy, Johns Hopkins
University, Baltimore, MD, USA; 2. IBM Almaden ResearchCenter, San Jose, MD, USA

9:00
10:12
ED-01. Imaging nsec current-induced vortex-domain wall motion anddeformation with magnetic soft x-ray microscopy. G. Meier1,
M. Bolte1, R. Eiselt1, U. Merkt1, B. Krüger2, D. Pfannkuche2,
D. Kim3 and P. Fischer31. Institute of Applied Physics, Universityof Hamburg, Hamburg, Germany; 2. I. Institute of Theoretical
Physics, University of Hamburg, Hamburg, Germany; 3. Centerfor X-Ray Optics, Lawrence Berkeley National Lab, Berkeley, CA,
USA

ED-07. Magnetic domain wall formation in ferromagnetic wires witha nanoconstriction. G. Li1, P. Wong1, S. Lepadapu2, Y. Zhai1,
Y. Xu1 and J. Wu21. Department of Electronics, University of York,York, United Kingdom; 2. Department of Physics, University ofYork, York, United Kingdom
10:24

9:12

ED-02. Direct observation of current-excited magnetization dynamics
using Lorentz microscopy. Y. Togawa1, T. Kimura1,2,
K. Harada1,3, T. Akashi3,4, T. Matsuda1,3, A. Tonomura1,3 andY. Otani1,21. Frontier Research System, The Institute of Physicaland Chemical Research (RIKEN), Hatoyama, Saitama, Japan; 2.
Institute for Solid State Physics, The University of Tokyo,
Kashiwa, Chiba, Japan; 3. Advanced Research Laboratory,
Hitachi, Ltd., Hatoyama, Saitama, Japan; 4. Hitachi High-Tec
Fielding Co., Shinjuku, Tokyo, Japan
9:24

ED-03. Temperature dependence of the spin torque effect in currentinduced domain wall motion. M. Klaui1, M. Laufenberg1,
W. Buhrer1, D. Bedau1, P. Melchy1, P. Dagras1, L. Vila2, G. Faini2,
C.F. Vaz3, J.C. Bland3 and U. Rudiger11. Physics, University ofKonstanz, Konstanz, Germany; 2. LPN-CNRS, Marcoussis,
France; 3. Cavendish Laboratory, University of Cambridge,
Cambridge, United Kingdom

ED-08. Current-induced domain wall motion in Pseudo Spin Valvenotched bars. D. Morecroft1,2, I.A. Colin1, F.J. Castano1 andC.A. Ross11. Materials Science and Engineering, Massachusetts
Institute of Technology, Cambridge, MA, USA; 2. Cavendish
Laboratory, Cambridge University, Cambridge, United Kingdom
10:36

ED-09. Current-induced domain wall motion in SrRuO3
M. Feigenson1, J.W. Reiner2, M.R. Beasley2 and L. Klein11.
Department of Physics, Bar-Ilan University, Ramat-Gan, Israel;
2. T.H. Geballe Laboratory for Advanced Materials, Stanford
University, Stanford, CA, USA
10:48

ED-10. Current-induced magnetic domain wall motion in (Ga,Mn)As
microstructures. K.F. Eid1, A. Balk1, B. Cooley1, G. Xiang1 and
N. Samarth11. Physics, The Pennsylvania State University,
University Park, PA, USA

138

PROGRAMWEDNESDAY
MORNING
9:00

PROGRAM

HARBORSIDE E

Session EE

MULTIFERROICS: BULK MATERIALS AND
THEORY

139

10:36

EE-07. Electric quadrupole interaction in HoMn0.9957Fe0.01O3 S. Kim1,
S. Cheong2 and C. Kim11. Physics, Kookmin University, Seoul,
South Korea; 2. Physics and Astronomy, Rutgers University,
Piscataway, NJ, USA

Venkat Rao, Session Chair
9:00
EE-01. Magnetic inversion symmetry breaking in multiferroictransition metal oxides. (Invited) M. Kenzelmann11. Laboratory
for Solid State Physics, ETH Zürich, Zürich, Switzerland

WEDNESDAY
MORNING
9:00

ESSEX

Session EF
9:36

ELECTRONIC STRUCTURE II
Roy Willis, Session Chair

EE-02. Original features of the model multiferroic BiFeO3: Effect oftemperature, pressure and strain. H. Raphael1,2, K. Jens2 and
B. Pierre21. LPCES-ICMMO, Orsay, France; 2. LMGP, Grenoble,
France
9:48
EE-03. Novel multiferroic system:Rare earth chromiates. X. Wang1,
Z. Cheng1 and H. Kimura21. Institute for Superconducting andElectronics Materials, University of Wollongong, Wollongong,
NSW, Australia; 2. Crystal Science and Technology Team, National
Institute for Materials Science, Tsukuba, Ibaraki, Japan

9:00

EF-01. Ferromagnetic Order in Metal Free Carbon at Room
Temperature. H. Ohldag1, T. Tyliszczak2, R. Höhne3,
D. Spemann3, P. Esquinazi3, M. Ungureanu3 and T. Butz31. SSRL,
Stanford University, Menlo Park, CA, USA; 2. ALS, Lawrence
Berkeley National Laboratory, Berkeley, CA, USA; 3. Institute forExperimental Physics, University of Leipzig, Leipzig, Germany

9:12
10:00
EE-04. Magnetoelectric Effect driven by Interface Bonding. C. Duan1,
S.S. Jaswal1 and E.Y. Tsymbal11. Department of Physics andAstronomy, University of Nebraska-Lincoln, Lincoln, NE, USA
10:12
EE-05. Probing multiferroicity and spin-spin interactions via angulardependent dielectric measurements on doped HoMnO3 inhigh magnetic fields. R. Vasic1,2, J.S. Brooks1,2, C.R. Wiebe1,2 and
H.D. Zhou1,21. Condensed Matter Group/Experimental, National
High Magnetic Field Laboratory, Tallahassee, FL, USA; 2.
Department of Physics, Florida State University, Tallahassee, FL,
USA
10:24
EE-06. Crystal Field Excitations in Multiferroic HoMnO3. O. Vajk1,
M. Kenzelmann2,3, J.W. Lynn1, S.B. Kim4 and S.W. Cheong41.
Center for Neutron Research, NIST, Gaithersburg, MD, USA; 2.
Laboratory for Solid State Physics, ETH Honggerberg, Zurich,
Switzerland; 3. Laboratory for Neutron Scattering, ETHZ andPaul Scherrer Institute, Villigen, Switzerland; 4. Department of
Physics and Astronomy, Rutgers University, Piscataway, NJ, USA

EF-02. Magnetic Transitions in Manganese-Benzoquinone
Coordination Polymers. R. Bah1, R. Rakhimov1, J.S. Hwang2,
A.I. Prokof’ev3, A. Andreyev1, T. Chisholm1, N. Noginova1,
S.P. Solodovnikov3, I.A. Alexandrov4 and A.I. Aleksandrov41.
Norfolk State University, Noroflk, VA, USA; 2. Texas A & M
University at Qatar, Doha, Qatar; 3. Institute of Organoelement
Compounds, Moscow, Russian Federation; 4. Institute of Synthetic
Polymer Materials, Moscow, Russian Federation

9:24

EF-03. Surface Anisotropy and the Anomalous Temperature
Dependence of the Peak Temperature in ChemicallySynthesized MnO Nanoparticles. M. Morales1, R. Skomski1,
S. Fritz1, G. Shelburne1, J. Shield2, M. Yin3, S. O’Brien3 andD. Leslie-Pelecky11. Department of Physics and Astronomy, andNebraska Center for Materials and Nanoscience, University of
Nebraska, Lincoln, NE, USA; 2. Department of MechanicalEngineering, and Nebraska Center for Materials andNanoscience, University of Nebraska, Lincoln, NE, USA; 3.
Department of Applied Mathematics and Physics, and Materials
Research Science and Engineering Center, Columbia University,
New York, NY, USA

140

PROGRAMPROGRAM

9:36

10:48

EF-04. Tip-induced Stark effect on quantum well states in Au/Fe(100).
S. Ogawa1, S. Heike1, T. Hashizume1 and H. Takahashi11. Hitachi
Advanced Research Lab., Saitama, Japan

EF-10. Atom-by-atom substitution of Mn in GaAs and visualizationof their hole-mediated interactions. (Invited) A. Yazdani11.
Department of Physics, Princeton University, Princeton, NJ, USA
11:24

9:48

EF-05. Magnetic Impurities in Magic-Number Clusters. R. Skomski11.
Department of Physics and Astronomy and Nebraska Center for
Materials and Nanoscience, University of Nebraska, Lincoln, NE,
USA
10:00

EF-06. Structure and Properties of A-site Ordered Manganite Films
and Superlattices. V. Moshnyaga1, S. Lakshmana1, O.I. Lebedev2,
K. Gehrke1, A. Belenchuk3, O. Shapoval3, S.A. Köster1,
B. Damaschke1, G. van Tendeloo2 and K. Samwer11. I. PhysicalIsntiute, University of Goettingen, Goettingen, Germany; 2.
EMAT, University of Antwerp (RUCA), Antwerpen, Belgium; 3.
Institute of Applied Physics, Academy of Sciences of Moldova,
Chisinau, Moldova
10:12

EF-07. Influence of ligand states on the relationship between orbital
moment and magneto-crystalline anisotropy. O. Karis1,
O. Eriksson1, C. Andersson1, L. Nordström1, B. Sanyal1,
D. Arvanitis1, T. Konishi2, E. Holub-Krappe3 and J. Hunter
Dunn41. Department of Physics, Uppsala University, Uppsala,Sweden; 2. Department of Chemistry, Faculty of Scince, Chiba
University, Chiba, Japan; 3. Hahn-Meitner Institute, Berlin,
Germany; 4. MAX-lab, Lund University, Lund, Sweden
10:24

EF-08. Charge State and Local Structure of Room Temperature
Ferromagnetic Mn Doped ZnO from X-ray Spectroscopy.
J. Guo1, A. Gupta2, P. Sharma2, K. Rao2, M. Marcus1, P. Glans5,
K. Smith5, R. Ahuja4, C. Dong3 and C. Chang31. Advanced Light
Source, Lawrence Berkeley National Laboratory, Berkeley, CA,
USA; 2. Materials Science, Royal Institute of Technology,
Stockholm, Sweden; 3. Physics, Tamkang University, Tamsui,
Taiwan; 4. Physics, Uppsala University, Uppsala, Sweden; 5.
Physics, Boston University, Boston, MA, USA
10:36

EF-09. Enhanced spin-polarization at Fe(001)/MgO interfaces.
M. Müller1, F. Matthes1 and C.M. Schneider11. Institute of Solid
State Research, Reseach Center Jülich, Jülich, Germany

141

EF-11. Influence of the antiferromagnetic spin density wave on themagnetoresistance of Cr. Y. Soh1 and R. Kummamuru11. Physics
and Astronomy, Dartmouth College, Hanover, NH, USA
11:36

EF-12. Non-collinear magnetism, magnetocrystalline anisotropy andspin-spiral structures in Fe/ W(110). K. Nakamura1, N. Mizuno1,
T. Akiyama1, T. Ito1 and A.J. Freeman21. Physics Engineering, Mie
University, Tsu, Mie, Japan; 2. Physics and Astronomy,
Northwestern University, Evanston, IL, USA
11:48

EF-13. Non-collinear magnetism in Permalloy (Ni0.8 Fe0.2).
M. Eisenbach1 and G. Stocks11. Materials Science andTechnology Division, Oak Ridge National Lab, Oak Ridge, TN,
USA

WEDNESDAY
MORNING
9:00

LAUREL

Session EG

RECORDING MODELING, SYSTEMS AND
THEORY
Terry Olson, Session Chair
9:00

EG-01. Simple Model for Transition Width and Cluster Size in
Perpendicular Recording. H.J. Richter1 and A.Y. Dobin11.
Seagate Technology, Fremont, CA, USA
9:12

EG-02. Simulation of Temperature Dependent Coercivity at LongTime Scales for Magnetic Recording. D. Suess1, H. Jung2,
E. Velu2, S. Malhotra2, G. Bertero2, J. Fidler1 and T. Schrefl31.
Institut of Solid State Physics, Technical University of Vienna,
Vienna, Austria; 2. Komag Inc, San Jose, CA, USA; 3.
Department of Engineering Materials, University of Sheffield,
Sheffield, United Kingdom

142

PROGRAMPROGRAM

143

9:24

10:48

EG-03. Domain Wall Pinning and Corresponding Energy Barrier in
Percolated Perpendicular Media. Y. Tang1 and J. Zhu11. Data
Storage Systems Center and Department of Electrical andComputer Engineering, Carnegie Mellon University, Pittsburgh,
PA, USA

EG-10. Servo Control Design for a High TPI Servo Track Writer with
Microactuators. C. Thum1,2, C. Du2, J. Zhang2, K. Tan2,
B.M. Chen1 and E. Ong21. Department of Electrical andComputer Engineering, National University of Singapore,
Singapore, Singapore; 2. Mechatronics and Recording Channel
Division, A*STAR, Data Storage Institute, Singapore, Singapore

9:36
11:00
EG-04. Relation between transition width and jitter in perpendicularmagnetic recording. K. Miura1, T. Kato1, M. Hashimoto1,
H. Muraoka1, H. Aoi1 and Y. Nakamura11. RIEC, Tohoku
University, Sendai, Miyagi, Japan

EG-11. Joint Gain and Timing Recovery for Magnetic Tape Storage.
J. Moon1, J. Lee1 and D. Yoon11. CDS Lab., Electrical andComputer Engineering, University of Minnesota, Minneapolis,
MN, USA

9:48
11:12
EG-05. High-accuracy measurement of erase band width using a new
off-track profile derivative method. K. Miura1, Y. Yamakawa1,
H. Muraoka1, H. Aoi1 and Y. Nakamura11. RIEC, Tohoku
University, Sendai, Miyagi, Japan

EG-12. Redesign of Multi-rate Digital Control for Computation
Saving. Q. Jia1 and S. Yoshida11. Storage Mechanics Lab,
HitachiAsia Ltd, Singapore, Singapore

10:00
11:24
EG-06. Analysis of Read/Write Characteristics on Head/Media
Contact. S. Ohki1, A. Yatagai1 and H. Ide11. Hitachi Global
Storage Technologies Japan, Ltd., Odawara, Japan
10:12

EG-07. A Novel in Situ Monitoring Method for Head/Media Contact.
Z. Lin1, T. Lam1, X. Che2, A. Shteyn1 and W. Huang11. AdTech of
Head BU, Hitachi Global Storage Technologies, Inc, San Jose,
CA, USA; 2. Samsung Electronics, San Jose, CA, USA
10:24

EG-08. Micromagnetic analysis of attempt frequencies for
perpendicular and exchange coupled composite grains.
M. Kapoor1 and R.H. Victora11. Electrical and Computer
Engineering, University of Minnesota, Minneapolis, MN, USA

EG-13. Clustering Frequent Data near the Edge of a Magnetic Disk to
Improve Disk Performance. F.Z. Wang1, Y. Deng1, S. Wu1,
N. Helian1 and V. Khare11. Centre for Grid Computing,Cambridge-Cranfield HPCF, Cranfield, Bedfordshire, United
Kingdom

11:36

EG-14. Transition Response Characteristics of Heat-Assisted
Magnetic Recording (HAMR) and their performance with
Maximum Transition Run (MTR) codes. R. Radhakrishnan1,
F. Erden2, C. He2 and B. Vasic11. Electrical and Computer
Engineering, University of Arizona, Tucson, AZ, USA; 2. Seagate
Technology, Pittsburgh, PA, USA

11:48

10:36

EG-09. Recording Performance Study of PMR Media with Patterned
Tracks. X. Che1, Y. Tang1, H. Lee1, S. Zhang1, N. Takahashi3,
M. Moneck2 and J. Zhu21. Samsung Information Systems
America, San Jose, CA, USA; 2. ECE, Carnegie Mellon
University, Pittsburgh, PA, USA; 3. Fuji Electric Advanced
Technology Co., Ltd, Matsumoto,, Nagano 390-0821, Japan

EG-15. A write head integrated with a solid-immersion-lens system
for heat-assisted magnetic recording. N. Kojima1, N. Ide2,
Y. Urakawa3 and M. Kaneko21. Core Technology Development
Group, Core Component Business Unit, Sony Corporation, Tokyo,
Japan; 2. Optical Media Labolatory, Materials Laboratories,
Sony Corporation, Tokyo, Japan; 3. Storage System Development
Division, TV&Video Business Group, Sony Corporation, Tokyo,
Japan

144

PROGRAMWEDNESDAY
MORNING
9:00

PROGRAM

DOVER

Session EH

FERRITES, GARNETS, AND MICROWAVEMATERIALS I
Mohammed Asfar, Session Chair
9:00

EH-01. Magnetic Anisotropy and Crystalline Texture in BaO(Fe2O3)6Thin Films Deposited on GaN/Al2O3 P.R. Ohodnicki1,
Y. Hanlumyuang1, K. Ramos1, M.E. McHenry1, Z. Cai2,
K. Ziemer2, Z. Chen3 and V.G. Harris31. Materials Sci & Eng,
Carnegie Mellon Univ., Pittsburgh, PA, USA; 2. Chemical Eng.
Dept., Northeastern Univ., Boston, MA, USA; 3. Dept. of Elec.
and Comp. Eng., Northeastern Univ., Boston, MA, USA
9:12

EH-02. Substrate independent oriented growth of Fe3O4 thin bypulsed laser deposition. S. Tiwari1, R. Prakash1, R.J. Choudhary1
and D.M. Phase11. Thin film laboratory, UGC-DAE Consortiumfor Scientific Research, Indore, Madhya Pradesh, India
9:24

EH-03. Magnetodielectric Composites for High Frequency Device and
EM Shielding Applications. X. Zhang1, J.Q. Xiao1, M.C. Golt2,
T.F. Ekiert1, S. Yarlagadda2 and K.M. Unruh11. Dept. Physics &Astronomy, University of Delaware, Newark, DE, USA; 2. Centerfor composite materials, University of Delaware, Newark, DE,
USA
9:36

EH-04. Spin sprayed Ni-Co ferrite films with natural resonancefrequency fr > 5 GHz and static permeability μ’(0) = 9.
K. Kondo1, S. Yoshida1, H. Ono1 and M. Abe21. R&D Unit, NEC
TOKIN Corporation, Sendai, Miyagi, Japan; 2. Department of
Physical Electronics, Tokyo Institute of Technology, Tokyo, Japan

145

10:00

EH-06. Magnetic and electromagnetic evaluation of the magnetic
nanoparticle filled polyurethane nanocomposites. Z. Guo1,
S. Park1,2, A. Karki3, D. Young3 and . H. Thomas1,41.
Multifunctional Compsoites Lab, Mechanical & Aerospace
Engineering Department, University of California at Los Angeles,
Los Angeles, CA, USA; 2. Advanced Materials & Processing
Development, Northrop Grumman Corporation Integrated
Systems, El Segundo, CA, USA; 3. Department of Physics andAstronomy, Louisiana State University, Baton Rouge, LA, USA; 4.
Materials Science & Engineering Department, University ofCalifornia at Los Angeles, Los Angeles, CA, USA

10:12

EH-07. Orientation Phase Transition in Fe3BO6 L.T. Tsymbal1,
Y.B. Bazaliy1,2, L.N. Bezmaternykh3, A. Slawska-Waniewska4,
S.V. Vasiliev1, N. Nedelko4, A.I. Linnik1, A.N. Cherkasov1,
Y.I. Nepochatykh1, V.I. Dmitrenko1, G.N. Kakazei5 andP.E. Wigen61. O. Galkin Donetsk Physics & Technology Institute,
National Academy of Scienc of Ukraine,, Donetsk, Ukraine; 2.
IBM Almaden Research Center, San Jose, CA, USA; 3. Kirensky
Institute of Physics, Krasnoyarsk, Russian Federation; 4. Instituteof Physics, PAN, Warsaw, Poland; 5. Institute of Magnetism,
National Academy of Science of Ukraine, Kyiv, Ukraine; 6.
Department of Physics, Ohio State University, Columbus, OH,
USA

10:24

EH-08. Structure, magnetism and microwave properties of PLDgrown Barium Ferrite/Barium Strontium Titanate bilayer thinfilms . H. Srikanth2, R. Heindl1, S. Witanachchi1, P. Mukherjee1,
T. Weller2, A. Tatarenko3 and G. Srinivasan31. Department of
Physics, University of South Florida, Tampa, FL, USA; 2.
Department of Electrical Engineering, University of South
Florida, Tampa, FL, USA; 3. Department of Physics, Oakland
University, Oakland, MI, USA

9:48
10:36
EH-05. Structural and magnetic studies on CoFe2O4-PbTiO3
multiferroic thin films. K. Mohan Kant1,2, R. Adarsh1,3,
K. Sethupathi2 and M. S.R.Rao1,21. Materials Science ResearchCentre, Indian Institute of Technology Madras, Chennai,
Tamilnadu, India; 2. Department of Physics, Indian Institute ofTechnology Madras, Chennai, Tamilnadu, India; 3. Department ofMetallurgical and Materials Engineering, Indian Institute ofTechnology Madras, Chennai, Tamilnadu, India

EH-09. Solid State Reaction Synthesis of NiFe2O4 Nanoparticles.
A. Ceylan1,3, I. Shah1,2, S. Ozcan3 and C. Ni21. Physics andAstronomy, University of Delaware, Newark, DE, USA; 2.
Material Science and Engineering, University of Delaware,
Newark, DE, USA; 3. Physics Engineering, Hacettepe University,
Ankara, Turkey

146

PROGRAM
10:48

EH-10. A NOVEL AND SIMPLE PROCESS FOR FERRITE FILM
PREPARATION FROM ONE SOLUTION WITHOUTUSING HAZARDOUS OXIDIZING AGENT.
A.K. Subramani1, M. Nobuhiro1, W. Tomoaki1, T. Masaru2,
A. Masanori2 and Y. Masahiro11. Materials and Structures
Laboratory, Tokyo Institute of Technology, Yokohama, Japan; 2.
Department of Physical Electronics, Tokyo Institute ofTechnology, Tokyo, JapanPROGRAMWEDNESDAY
MORNING
8:00

147

GRAND BALLROOM

Session EP

SUPERCONDUCTIVITY, CRITICALPHENOMENA(POSTER SESSION)
Oleg Tchernyshyov, Session Co-chair
Patrick LeClair, Session Co-chair

11:00

EH-11. High Frequency Tunneling Magnetic Loss in Soft Ferrites.
W. Roshen11. Ohio State Univ., SSUPower Technology, Hilliard,
OH, USA
11:12

EH-12. Ferromagnetic Resonance Study of Magnetic Anisotropies in
Arrays of Ni/Cu and CoFe/Cu Multilayered Nanowires.
L. Carignan1, C. Lacroix1, A. Ouimet1, M. Ciureanu1, A. Yelon1
and D. Menard11. Physics engineering, Ecole Polytechnique deMontréal, Montréal, QC, Canada
11:24

EH-13. Anisotropic polymer-metal nanocomposites for highfrequency applications. H. Greve1, V. Zaporojtchenko1,
A. Gerber2, E. Quandt2 and F. Faupel11. Chair for
Multicomponent Materials, Faculty of Engineering of theChristian-Albrechts University of Kiel, Kiel, Germany; 2. Smart
Materials Group, Center of Advanced European Studies andResearch, Bonn, Germany
11:36

EH-14. Magnetic Properties of Cobalt Ferrite Nanoparticles
Dispersed in a Sulfonated Poly [styrene-(ethylene/butylene)styrene] Triblock Copolymer Matrix via in Situ Precipitation.
S.K. Peddini1, K.A. Mauritz1, D.E. Nikles2, J. Weston2 and
G. Miao21. School of Polymers and High Performance Materials,
University of Southern Mississippi, Hattiesburg, MS, USA; 2.
Center for Materials for Information Technology, University of
Alabama, Tuscaloosa, AL, USA
11:48

EH-15. Possible sign of negative refraction index of NiFe/SiO2
multilayers in the microwave region. R. Cao1, X. Zhang1,
J.Q. Xiao1 and R. Wu21. Department of Physics and Astronomy,
University of Delaware, Newark, DE, USA; 2. Department ofElectronic Sciences and Engineering, Nanjing University,
Nanjing, Jiangsu, China

EP-01. Proximity effect of ferromagnetism/superconductivity in
Nd0.7Ca0.3MnO3/YBa2Cu3O7 bilayer. J. Lin1,2, D. Hsu1,3,
C. Chiang4, W. Chan4 and W. Wu31. Center for Condensed Matter
Sciences, National Taiwan University, Taipei, Taiwan; 2. Center
for Nanostorage Research, National Taiwan University, Taipei,
Taiwan; 3. Department of Mechanical Engineering, National
Taiwan University, Taipei, Taiwan; 4. Department of Physics,
Tamkang University, Taipei, Taiwan
EP-02. Magnetocaloric effect in the magnetic superconductor
RuSr2Eu1.5Ce0.5Cu2O10-δ M.G. das Virgens2,4, A.M. Gomes1,
J.C. Checon2, A. Lopez5, I.S. Azevedo5 and M.A. Continentino31.
Inst. Física, Univ. Federal do Rio de Janeiro, Rio de Janeiro, RJ,
Brazil; 2. Dept. Fisica, Univ. Federal do Espírito Santo, Vitória,ES, Brazil; 3. Inst. de Física, Univ. Federal Fluminense, Niterói,
RJ, Brazil; 4. Univ. Federal do Espírito Santo, Vitória, ES, Brazil;
5. Centro Brasileiro de Pesquisas Físicas, Rio de Janeiro, RJ,
Brazil
EP-03. Avalanche of flux jumps in polycrystalline MgB2
superconductor. I. Felner1, V. Awana2 and H. Kishan21. Racah
Institute of Physics, Jerusalem, Israel; 2. NPL, New Delhi, India
EP-04. Impact of sintering temperature on the physical properties of
the Superconducting Ferromagnet –RuSr2Eu1.5Ce0.5Cu2O10. R. Nigam1, V.P. Awana2, A.V. Pan1and S.X. Dou11. Institute of Superconducting and Electronic
Materials, University of Wollongong, Wollongong, NSW, Australia;
2. Superconductivity & Cryogenics, NPL, New Delhi, India
EP-05. High pressure and high temperature (HPHT) synthesis andmagnetic characterization of magneto-superconducting
Nb0.9Sr2YCu2.1O7.9 (Nb-1212Y) compound.
S. Balamurugan1, V. Awana2 and E. Takayama-Muromachi11.
Advanced Nano Materials Laboratory, National Institute forMaterials Science (NIMS), Tsukuba, Ibaraki, Japan; 2.
Superconductivity and Cryogenic Division, National PhysicalLaboratory, K.S. Krishnan Marg, New Delhi, India
EP-06. Impact of nano-Mo addition/substitution on the phaseformation and superconductivity of Mg1-xMoxB2 (x = 0.0 to0.50). V. Awana1, A. Vajpayee1, S. Balamurugan2, L.S. Sharath
Chandra3, R. Rawat3, V. Ganesan3, H. Kishan1, E. TakayamaMuromachi2 and A.V. Narlikar31. Sup & Cryo, NPL, New Delhi,
India; 2. ANML, NIMS, TSUKUBA, Japan; 3. CSR, IUC,
INDORE, India

148

PROGRAMPROGRAM

EP-07. Structure and Transport properties in YBa2-xEuxCu3O7-δ
Sperconductors. B. Qian1,2, J. Xing1,2, Z. Jiang1 and X. Wu11. Lab
of Solid State Microstructures and Department of Physics,
Nanjing University, Nanjing, Jiangsu, China; 2. Jiangsu
Laboratory of Advanced Functional Materials and Department of
Physics, Changshu Institute of Technology, Changshu, China

EP-15. Dilution Dependence of the Ordering Temperature of a 3D-XY
Ferromagnet. G.C. DeFotis1, R.A. Huddleston1, B.R. Rothermel1,
J.H. Boyle1, E.S. Vos1, Y. Matsuyama1, A.T. Hopkinson1,
T.M. Owens1 and W.M. May11. Chemistry, College of William andMary, Williamsburg, VA, USA

EP-08. Nonlinear magnetic response of the Ru0.9Sr2Cu2.1O7.9
magneto superconductor and its resultant phase separation.
I. Zivkovic1, V.P. Awana2, H. Kishan2, E. Balamurugan3,
E. Takayama-Muromachi3 and I. Felner41. Institute of Physics,
Zagreb, Croatia; 2. Sup&Cryo, NPL, New Delhi, India; 3. ANML,
NIMS, Tsukuba, Japan; 4. Racah Inst. of Physics, Hebrew
University, Jerusalem, Israel
EP-09. Possible manipulation of spin and charges in magnetic
semiconductors using Josephson vortices. X. Wang1, S. Yu2,
C. Lin3, B. Liang3, S. Ooi2, K. Hirata2, S. Dou1 and Z. Lin41.
Institute for Superconducting and Electronic Materials, Universityof Wollongong, Wollongong, NSW, Australia; 2. Superconducting
materials Centers, NIMS, Tsukuba, Japan; 3. Crystal GrowthGroup, Max-Plank-Institute, Stutgart, Germany; 4. Faculty ofEngineering, University of Technology, Sydney, Sydney, NSW,
Australia
EP-10. Influence of trapped magnetic flux quantum on twodimensional magnetic field dependence of a Josephson
junction. N. Watanabe1, A. Nakayama1 and S. Abe11. Faculty ofEngineering, Kanagawa University, Yokohama, Japan
EP-11. Low annealing temperatures are possible to fabricate MgB2
thin films by two-step in situ approach. X. Sun1, Y. Zhang1,
H. Zhu1, Z. Gao1, S. Zhou1, Z. Lin2 and J. Zhu21. Department of
Physics, Shanghai University, Shanghai, China; 2. Faculty ofEngineering, University of Technology, Sydney, Broadway, NSW,
Australia
EP-12. The Superconducting Properties of Indium Nanoparticles.
F. Wu1, C. Li1, T. Pan1, C. Wang1, C. Yang3, S. Wu2 and W. Li11.
Department of Physics, National Central University, Chung-Li
32054, Taiwan; 2. Department of Physics, National Dong Hwa
University, Hua-Lien 97401, Taiwan; 3. Institude of Physics,
Academia Sinica, Taipei 11529, Taiwan
EP-13. Properties of vortex motion in a niobium film with gradeddensity of pinning sites. T. Wu2, R. Cao1, L. Horng1, J. Kolacek3,
J. Wu1 and T. Yang21. Department of Physics, National Changhua
University of Education, Changhua, Taiwan; 2. Department ofElectrophysics, National Chiao Tung University, Hsinchu, Taiwan;
3. Institute of Physics, ASCR, Prague, Czech Republic
EP-14. Single Electron Charging Effects and Bloch Oscillations in
High-TC Superconducting Tunnel Junctions. G.A. Alvarez1,2,
I. Iguchi2 and X. Wang11. Institute for Superconducting andElectronic Materials, University of Wollongong, Wollongong, NSW,
Australia; 2. Applied Physics, Tokyo Institute of Technology, Tokyo,
Japan

149

EP-16. Random Field Effects and Low-field Remanent Magnetization
on High Anisotropy Antiferromagnet Fe1-xZnxF2.(x = 0; 0.28;
0.54 and 0.69). C.C. Becerra1, Z.V. Carvalho1 andF. Montenegro21. Instituto de Fisica, Universidade de São Paulo,
Sao Paulo, SP, Brazil; 2. Departamento de Fisica, Universidade
Federal de Pernambuco, Recife, Brazil
EP-17. GROWTH AND DECAY OF MICRODROPLETS ON THE
MAGNETIC DISK SURFACE DURING DEWETTING.
S. Ohno1, T. Kato1 and M. Kawaguchi21. Mechanical Engineering,Tokyo University, Tokyo, Japan; 2. Tokyo Metropolitan Industrial
Technology Research Institute (TIRI), Tokyo, Japan
EP-18. Anomalous specific heat and its field dependence in themagnetic polaron system : EuB6. B. Kim1, U. Yu2 and B. Min11.
Physics, Pohang University of Science and Technology, Pohang,
Gyungbuk, South Korea; 2. Theoretical Physics III, Center forElectronic Correlations and Magnetism, University of Augsburg,
Augsburg, Germany
EP-19. Latent heat of a first order phase transition: the fcc Ising
antiferromagnet. A.D. Beath1 and D.H. Ryan11. Physics
Department and the Centre for the Physics of Materials, McGill
University, Montreal, QC, Canada

WEDNESDAY
MORNING
8:00

GRAND BALLROOM

Session EQ

EXCHANGE BIAS IV(POSTER SESSION)
Kai Liu, Session Co-chair
Jingsheng Chen, Session Co-chair
EQ-01. Perpendicular exchange bias mechanism in FePt/FeMn
multilayers. N.N. Phuoc1 and T. Suzuki11. Information Storage
Materials Laboratory, Toyota Technological Institute, Nagoya,
Aichi, Japan
EQ-02. Exchange bias in [Pt/Co]n/IrMn multilayers withperpendicular magnetic anisotropy. J. Rhee1, J. Hwang1,
H. Yim1, M. Kim1, S. Lee2, D. Hwang2, S. Yu3 and H. Lee41.
Physics, Sookmyung Women’s University, Seoul, South Korea; 2.
Computer and Electronic Physics, Sangji University, Wonju,
South Korea; 3. Physics, Chungbuk National University,
Cheongju, South Korea; 4. Physics Education, Kongju National
University, Kongju, South Korea

150

PROGRAMPROGRAM

EQ-03. Co-existence of vertical and horizontal shift in exchanged
biased ZnCoO/NiO system. P. Huang1, H. Huang1 and C. Lai11.
Materials Science and Engineering, National Tsing Hu
University, HsinChu, Taiwan

EQ-11. Training effect in specular spin valves. J. Ventura1, J.B. Sousa1,
A. Veloso2 and P.P. Freitas21. IFIMUP, Porto, Portugal; 2. INESCMN, Lisbon, Portugal

EQ-04. Spin structure of exchange-biased NiFe/FeMn/NiFe trilayers.
A.M. Alsmadi1,2, S. te Velthuis1, G.P. Felcher1, H.G. Yoon3 andC.G. Kim31. Argonne National Laboratory, Argonne, IL, USA; 2.
Physics Department, Hashemite University, Zarqa, 13115,
Jordan; 3. Department of Material Science and Engineering,
Chungnam National University, Daejon, 305-764, South Korea
EQ-05. Enhancement of exchange field in CoFe/IrMn by Os/Cu
buffer layer. T. Peng1, C. Lo2, S. Chen1 and Y. Yao3,11. The
Department of Materials Science and Engineering, National
Chiao Tung University, Hsinchu, Taiwan; 2. Electronics andOptoelectronics Research Laboratories, Industrial Technology
Research Institute, Hsinchu, Taiwan; 3. Institute of Physics,
Academia Sinica, Taipei, Taiwan
EQ-06. Distribution of magnetic anisotropy field in IrMn/ CoFe
exchange-coupled multilayers by permeability measurement.
R. Jiang1, C. Lai1 and M. Yamaguchi21. Materials Science andEngineering, National Tsing Hu University, HsinChu, Taiwan; 2.
Electrical and Communication Engineering, Tohoku University,
Sendai, Japan
EQ-07. Estimation of the anisotropy of (111) textured IrMn films of
low thickness. K. Steenbeck1, R. Mattheis1 and M. Diegel11.
Magnetoelectronics, IPHT, Jena, Germany
EQ-08. Partial magnetization reversal in perpendicular exchange
biased [Co/Pd]/FeMn film by using laser annealing. S. Choi1,
H. Joo2, J. Choi3, K. Lee3, S. Kim4, S. Bae4, S. Lee5 andD. Hwang51. Life Science Institute, Sangji University, Wonju,
South Korea; 2. Department of Physics, Inha University, Incheon,
South Korea; 3. Department of Physics, Dankook University,
Cheonan, South Korea; 4. Biomagnetics Lab., Department ofElectrical and Computer Engineering, National University ofSingapore, Singapore 117576, Singapore; 5. Department ofApplied Physics and Electronics, Oriental Biomedical
Engneering, Sangji University, Wonju, South Korea
EQ-09. INDIRECT EXCHANGE INTERACTION BETWEEN
Ferromagnetic F AND AF LAYERS. P.D. Kim1,2, Y.Y. Song1,
Y.G. Yoo3, I.A. Turpanov2, D.L. Khalyapin2, D.A. Maruschenko5,
K.W. Lee4 and S. Yu11. Physics Department, Chungbuk National
University, Cheongju, South Korea; 2. Kirensky Institute ofPhysics, Russian Academy of Sciences, SB RAS, 660036
Krasnoyarsk, Russian Federation; 3. Electronics andTelecommunications Research Institute, Daejeon, 305-700, South
Korea; 4. Korea Research Institute of Standard and Science,
Yusong, 305-340, South Korea; 5. Krasnoyarsk State University,
660041 Krasnoyarsk, Russian Federation
EQ-10. Measuring exchange anisotropy in Fe/MnPd using inductive
magnetometry. K.J. Kennewell1, X. Ji2, J.G. Hu3, K.M. Krishnan2
and R. Stamps11. Physics, University of Western Australia,
Crawley, WA, Australia; 2. Physics, Yangzhou University,
Yangzhou, China; 3. Physics, University of Washington, Seattle,
WA, USA151

EQ-12. Effect of annealing temperature on exchange coupling in
NiFe/FeMn and FeMn/NiFe systems. K. Chen1, Y. Wu1, K. Wu1and L. Horng11. Department of Physics and Tawian SPIN
research center, National Changhua University of Education,
Changhua, Taiwan
EQ-13. Critical thickness investigation of magnetic properties inexchange-coupled bilayers. R.L. Rodríguez-Suárez1,
A.B. Oliveira1, J.R. de Almeida1, S.M. Rezende1 andA. Azevedo11. Departamento de Fisica, Universidade Federal de
Pernambuco, Recife, PE, Brazil
EQ-14. Influence of Co/NiO interface in perpendicular exchangebiased Co/Pt multilayer. M. Huang1, W. Lin1, D. Liu1 and
H. Sang11. National Lab of Solid State Microstructures, andDepartment of Physics, Nanjing University, Nanjing, China
EQ-15. Characterization of CoFe-NOL by Conversion Electron
Mössbauer Spectroscopy. M. Doi1, H. Endo1, K. Sawada1 and
M. Sahashi11. Electronic Engineering, Tohoku University, Sendai,Japan
EQ-16. Exchange bias in a Ni80Fe20/α-Fe2O3 thin-film. J. van Lierop1,
K. Lin2, P. Ko2, J. Guo2 and H. Ouyang21. Physics and Astronomy,
University of Manitoba, Winnipeg, MB, Canada; 2. Department ofMaterials Engineering, National Chung Hsing University,
Taichung, Taiwan
EQ-17. REACTIVE SPUTTERING SYNTHESIS OF Co-CoO/Ag
NANOGRANULAR AND MULTILAYER FILMSCONTAINING CORE-SHELL PARTICLES. J.A. De Toro1,
J.P. Andres1, P.S. Normile1, P. Muñiz1, J.A. Gonzalez1, T. Muñoz1,
A.J. Barbero1 and J.M. Riveiro11. Departamento de Fisica
Aplicada, Universidad de Castilla-La Mancha, Ciudad Real,
Spain
EQ-18. Temperature dependence of magnetotransport properties of
NiFe/FeMn/NiFe trilayers. K. Chui1, D. Tripathy1 and
A.O. Adeyeye11. Electrical and Computer Engineering, National
University of Singapore, Singapore, Singapore
EQ-19. Magnetic viscosity phenomena in exchange coupled
CoFe/MnIr bilayers. D. Kim1,3, C. Kim1, C. Kim1, M. Tsunoda2
and M. Takahashi2,31. Research Center for Advanced Magnetic
Materials, Chungnam National University, Daejeon, South
Korea; 2. Electronic Engineering, Tohoku University, Sendai,
Japan; 3. New Industry Creation Hatchery Center, Tohoku
University, Sendai, Japan
EQ-20. Giant uncompensated magnetization in FexNi1-xF2/Co bilayers.
M. Cheon1, Z. Liu1 and D. Lederman11. Physics, West Virginia
University, Morgantowm, WV, USA

152

PROGRAMWEDNESDAY
MORNING
8:00

PROGRAMGRAND BALLROOM

Session ER

MAGNETIC TUNNEL JUNCTIONS: IV(POSTER SESSION)

153

ER-09. Conductance Behaviors of Magnetic Tunneling Transistors
with FeCo Base. H.D. Quang1, S.K. Oh1, C.O. Kim2,
M. Tsunoda3 and S.C. Yu11. Department of Physics, College of
Natural Science, Chungbuk National University, 361-763
Cheongju, South Korea; 2. Research Center for Advanced
Magnetic Materials, Chungnam National University, 305-764
Daejeon, South Korea; 3. Department of Electronic Engineering,Tohoku University, Aobayama 05, 980-8579 Sendai, Japan

Jeff Childress, Session Chair
ER-01. A TEM study of thermal stability of magnetic tunnel
junctions integrated with CMOS devices. V.K. Lazarov1,
D. Kirk1, A. Kohn1, T. Dimopoulos2, T. Uhrmann2 and
H. Brueckl21. Materials, University of Oxford, Oxford, United
Kingdom; 2. Nano-SystemTechnologies, ARC-Sr, Vienna, Austria
ER-02. Band diagram of spin tunneling junctions based on perovskite
oxides heterointerfaces. M. Minohara1, D. Toyota2, I. Ohkubo2,
H. Kumigashira2, M. Oshima1,2, M. Lippmaa3, M. Kawasaki4 andH. Koinuma51. Department of Arts and Sciences, The Universityof Tokyo, Tokyo, Japan; 2. Department of Applied Chemistry, The
University of Tokyo, Tokyo, Japan; 3. Institute for Solid State
Physics, The University of Tokyo, Kashiwa, Japan; 4. Institute forMaterials Research, Tohoku University, Sendai, Japan; 5.
Graduate School of Frontier Science, The University of Tokyo,
Kashiwa, Japan
ER-03. A Trial for a Spin-filtering Device Operating at Room
Temperature using a Co-ferrite Ferromagnetic Barrier.
R. Goto1, Y. Takahashi2, N. Tezuka1,3, K. Inomata2,3, S. Sugimoto1
and K. Hono21. Department of Materials Science, Tohoku
university, Sendai, Japan; 2. National Institute for Materials
Science, Tsukuba, Japan; 3. CREST-JST, Saitama, Japan
ER-04. Spin Filter Based Tunnel Junctions. M.G. Chapline1 and
S.X. Wang21. Western Digital, Fremont, CA, USA; 2. Material
Sciences and Engineering, Stanford University, Stanford, CA,
USA
ER-05. Electronic structure and spin-filter effect of spinel ferrite.
J. Ozeki1, H. Itoh1 and J. Inoue11. Applied Physics, Nagoya
University, Nagoya, Japan
ER-06. Spin-Dependent Tunneling Device Utilizing the MagnetoCoulomb Effect. M.B. Jalil1 and S. Tan21. Information Storage
Materials Laboratory, Electrical and Computer Engineering
Department, National University of Singapore, Singapore,
Singapore; 2. Data Storage Institute, Singapore, Singapore
ER-07. Magnetic properties and microstructures of FeN electrode for
MTJ. K. Kim1, J. Koo1, S. Woo1 and J. Hong11. Physics, Hanyang
University, Seoul, South Korea
ER-08. Oscillation of low-bias tunnel conductance with appliedmagnetic field in manganite/alumina tunnel structures. Y. Luo1
and K. Samwer11. I.Phys. Institute, University Göttingen,Göttingen, Germany

ER-10. Effects of field cool direction on the magnetoresistance ofmagnetic tunnel junction rings. C. Chen1, C. Chao1, C. Kuo1,
L. Horng1, J. Wu1, T. Wu2, G. Chern3, C. Huang4, S. Isogami5,
M. Tsunoda5 and M. Takahashi51. Physics, National Changhua
Univ. of Education, Taiwan, Changhua, Taiwan; 2. Taiwan spin
research center, National Yunlin Univ. of Science & Technology,
Yunlin, Taiwan; 3. Taiwan Spin Research Center, National ChungCheng University, Chia-Yi, Taiwan; 4. National Taiwan Normal
University, Taipei, Taiwan; 5. Electronic Engineering, National
Taiwan Normal University, Sendai, Japan

ER-11. Controllable remanent states on microstructured magnetic
tunnel junction rings. C. Chen1, C. Chao1, C. Kuo1, L. Horng1,
J. Wu1, T. Wu2, G. Chern3, C. Huang4, M. Tsunoda5 and
M. Takahashi51. Physics, National Changhua University of
Education, Changhua, Taiwan; 2. Taiwan Spin Research Center,
National Yunlin University of Science & Technology, Yunlin,
Taiwan; 3. Taiwan Spin Research Center, National Chung-Cheng
University, Chia-Yi, Taiwan; 4. National Taiwan Normal
University, Taipei, Taiwan; 5. Tohoku University, Sendai, Miyagi,
Japan

ER-12. Chemical and magnetic interface properties of tunnel
junctions with Co2MnSi / Co2FeSi multilayer electrodeshowing large tunneling magnetoresistance. J.M. Schmalhorst1,
D. Ebke1, M.D. Sacher1, N. Liu1, A. Thomas1, G. Reiss1 andA. Huetten21. Department of Physics, Thin Films andNanostructures, Bielefeld University, Bielefeld, Germany; 2.
Institute for Nano-Technology, Research Center Karlsruhe,
Karlsruhe, Germany

ER-13. Fabrication and characterization of Cr/Fe/MgO/Fe(001)magnetic tunnel junctions with an ultra thin Fe electrode.
T. Niizeki1, N. Tezuka1,2 and K. Inomata1,31. CREST-JST,
Kawaguchi, Saitama, Japan; 2. Tohoku University, Sendai,
Miyagi, Japan; 3. National Institute for Materials Science(NIMS), Tsukuba, Ibaraki, Japan

ER-14. Formation of Fe-oxide layer and its role on effective barrierheight in CoFeB/MgO/CoFeB tunnel junction. Y. Jang1,
C. Nam1, K. Lee1, Y. Cho2, T. Kim2 and B. Cho11. Materials
Science and Engineering, Gwangju Institute of Science andTechnology (GIST), Gwang-Ju, Gwang-Ju, South Korea; 2.
Devices Lab, Samsung Advanced Institute of Technology (SAIT),
YoungIn, Gyeonggi-do, South Korea

154

PROGRAMWEDNESDAY
MORNING
8:00

PROGRAMGRAND BALLROOM

Session ES

SPIN INJECTION IN SEMICONDUCTORS ANDMETALS II(POSTER SESSION)

155

ES-09. Saw-tooth typed domain wall jumps in epitaxial ferromagnetic
MnAs film on GaAs(001). K. Ryu1, H. Akinaga2, T. Manago2 andS. Shin11. Department of Physics and Center for Nanospinics ofSpintronic Materials, Korea Advanced Institute of Science andTechnology, Daejon, South Korea; 2. Nanotechnology ResearchInstitute, National Institute of Advanced Industrial Science andTechnology, 1-1-1 Higashi, Tsukuba, Ibaraki 305-8562, Japan

Nikoleta Theodoropoulou, Session Chair
ES-01. Transport Characteristics and Interface of Fe3O4/GaAs
Hybrid Structure. S. Hassan1, Y. Xu1, E. Ahmad1 and Y. Lu11.
Electronics, University of York, York, United Kingdom

WEDNESDAY
MORNING
8:00

GRAND BALLROOM

Session ET
ES-02. Non-Linear Spin Injection and Spin Extraction in
Ferromagnet-Semiconductor Heterostructures. A.G. Petukhov1,
S. Osipov2 and V.N. Smelyanskiy21. Physics, South Dakota Schoolof Mines and Technology, Rapid City, SD, USA; 2. NASA Ames
Research Center, Moffett Field, CA, USA

PERMANENT MAGNET MOTORS I(POSTER SESSION)
David Dorrell, Session Chair

ES-03. Spin injection and accumulation in epitaxially grown
MnAs/GaAs lateral spin-valves. D. Saha1, M. Holub1 andP. Bhattacharya11. Department of Electrical Engineering andComputer Science, University of Michigan, Ann Arbor, MI, USA

ET-01. Analysis of a Novel Axial Flux PM Machine Considering theLaminated Stack Directions. W. Jo1, I. Lee1, Y. Cho1, Y. Chun2and D. Koo21. Dep. of Electrical Eng. of Dong-A Univ., Pusan,
South Korea; 2. Mechatronics Group, Korea Electrotechnology
Research Institute, Changwon-si, South Korea

ES-04. Tunneling Characteristics through SDT Junction Nano-lines
into Doped-Si. M. Zhang1, J. Wang1, P. Eames2 and
J.M. Daughton21. Physics Department, State University of New
York Binghamton, Binghamton, NY, USA; 2. NVE Corporation,
Eden Prairie, MN, USA

ET-02. The study on the lumped parameter design method forpermanent magnet motor with the overhang coefficient byusing FEM and simulation DOE. K. Kim1 and J. Lee11. Dept. ofElectrical Engineering, Hanyang University, Seoul, South Korea

ES-05. Non-local spin injection and relaxation in
ferromagnet/nonmagnet/ferromagnet trilayers. Y. Ando1,
S. Yakata1, M. Oogane1 and T. Miyazaki11. Department of Applied
Physics, Graduate School of Engineering, Tohoku University,
Sendai, Miyagi, Japan

ET-03. Bias-magnetic force for vibration reduction of magnetic
bearing motors. C. Wang1,3 and Y. Yao1,21. Materials Science andEngineering, National Chiao Tung University, Hsinchu, Taiwan; 2.
Institute of Physics, Academia Sinica, Taipei, Taiwan; 3.
Electronics and Optoelectronics Research Laboratories, Industrial
Technology Research Institute, Hsinchu, Taiwan

ES-06. Spin accumulation and magnetotransport in NiFe/Al/NiFe
single-electron transistors. J. Shyu1,2, F. Tang2, Y. Yao2 andJ. Chen11. National Taiwan University, Physics, Taipei, Taiwan; 2.
Academia Sinica, Physics, Taipei, Taiwan

ET-04. The Position Tracking Characteristic Analysis of 3-DOF
Spherical PM Motor. J. Ahn1, S. Won1, K. Kim1 and J. Lee11.
Electrical Engineering, Hanyang University, Seoul, South Korea

ES-07. Theory of the resonance signal in a bimetallic film
(normal/ferromagnetic). H.J. Hurdequint11. Laboratoire dePhysique des Solides, CNRS-Universite Paris-Sud, Orsay, France

ES-08. An investigation of spin current detection in single-walledcarbon nanotubes. M. Shiraishi1, K. Matsuoka1, M. Mizuguchi1,
H. Kataura2, T. Shinjo1 and Y. Suzuki11. Graduate School ofEngineering Science, Osaka University, Toyonaka, Osaka, Japan;
2. NRI, AIST, Tsukuba, Japan

ET-05. Post assembly magnetization patterns in rare earth permanent
magnet motors. D.G. Dorrell1 and M. Hsieh21. Dept ofElectronics and Electrical Engineering, University of Glasgow,
Glasgow, United Kingdom; 2. Mechanical Engineering, National
Cheng Kung University, Tainan, Taiwan

ET-06. Influences of PWM modes on the iron loss of Flux Reversal
Machine. T. Kim11. Electrical Engineering, Gyeongsang National
University, Jinju, Gyeongnam, South Korea

156

PROGRAM

ET-07. A Study on design to reduce cogging torque in flux reversal
machines. T. Kim11. Electrical Engineering, Gyeongsang
National University, Jinju, Gyeongnam, South Korea

PROGRAMWEDNESDAY
MORNING
8:00

157

GRAND BALLROOM

Session EU
ET-08. Design and Analysis of a High Speed Claw Pole Motor with
Soft Magnetic Composite Core for Micro Turbine Application.
Y. Huang1,2, Y. Guo2, J. Zhu2, Z. Lin2 and Q. Hu11. Dept. ofElectrical Eng., Southeast University, Nanjing, Jiangsu, China; 2.
Faculty of Engineering, University of Technology, Sydney, Sydney,
NSW, Australia

ET-09. Electromechanical Parameters Calculation of Permanent
Magnet Synchronous Motor using the Transfer Relations
Theorem. S. Jang1, K. Ko1, H. Cho1 and J. Choi11. Chungnam
Nat’l Univ, Daejeon, South Korea

ET-10. A brushless permanent magnet motor with integrated torquelimiter. K. Atallah1, S.D. Calverley1 and D. Howe11. Electronic &Electrical Engineering, The University of Sheffield, Sheffield,
United Kingdom

ET-11. A new 3-phase, flux-switching permanent magnet machine
topology. A.S. Thomas1, Z. Zhu1, G.W. Jewell1 and D. Howe11.
University of Sheffield, Sheffield, United Kingdom

ET-12. Design and control of a new double-stator cup-rotor
permanent-magnet machine for wind power generation.
S. Niu1, K. Chau1 and J. Jiang21. Department of Electrical andElectronic Engineering, The University of Hong Kong, Hong
Kong, China; 2. Department of Automation, Shanghai University,
Shanghai, China

ET-13. Design of a magnetic-geared outer-rotor permanent-magnet
brushless motor for electric vehicles. K. Chau1, D. Zhang2,
J. Jiang2, C. Liu1 and Y. Zhang21. The Department of Electricaland Electronic Engineering, The University of Hong Kong, Hong
Kong, China; 2. Department of Automation, Shanghai University,
Shanghai, China

ET-14. 2D-Finite Element analysis of a novel permanent magnet
motor with 74 magnet poles and 111 stator poles.
G.F. Rodriguez1, G. Hughes1, Y. Morel2, O. Zucker2 andA.E. Berkowitz11. Center for Magnetic Recording Research, Univof California-San Diego, La Jolla, CA, USA; 2. BAE Systems,
Advanced Technologies, Inc, Washington, DC, USA

ET-15. Investigation of magnetic drag torque in PM brushless motors.
Y.S. Chen1, Z. Zhu2 and D. Howe21. Zhejiang University,
Hangzhou, China; 2. University of Sheffield, Sheffield, United
Kingdom

NEW APPLICATIONS II(POSTER SESSION)
Yves Idzerda, Session Chair
EU-01. Magneticcally controlled switches for optoelectronics
networking: The problem, available technology, newimplementations. J. Tioh1, M. Mina1 and R. Weber11. Electricaland Computer Engineering, Iowa State University, Ames, IA,
USA; 2. Electrical and Computer Engineering, Iowa State
University, Ames, IA, USA
EU-02. Improvement of Torque Ripple for Magnetic Gears. S. Huang1
and L. Wang11. Department of Mechanical Engineering, National
United University, Miaoli, Taiwan
EU-03. The effect of bcc-Cu precipitation on magnetization process inthermally aged Fe-1wt%Cu model alloys. Y. Kamada1, D. Park2,
S. Takahashi1, H. Kikuchi1, S. Kobayashi1, K. Ara1, J. Hong2 andI. Park31. NDE&Science Research Center, Iwate University,
Morioka, Japan; 2. Korea Atomic Energy Research Institute,Daejeon, South Korea; 3. Sunmoon University, Chonan, South
Korea
EU-04. Development of slim rectangular microspeaker used for minimultimedia phones. S. Hwang1 and J. Kwon11. MechanicalEngineering, Pusan National University, Busan, Busan, South
Korea
EU-05. A disturbance observer applied to a high speed voice coilmotor auto-focusing system. T. Lee1 and S. Lin11. Department ofElectrical and Control Engineering, National Chiao Tung
University, Hsinchu, Taiwan
EU-06. Design method of Micro-Actuator with Magnetic Alloy Ironbased Amorphous plates for loudspeaker. T. Lin1 and
T. Meydan21. Electrical Engineering, Yung Ta Institute ofTehnology & Commerce, Pingtung County, Taiwan; 2. Wolfson
Centre for Magnetics, Cardiff University, Cardiff, United
Kingdom
EU-07. A Continuous Model for Magnetization Torque on Axially
Symmetric Bodies. J.J. Abbott1, O. Ergeneman1, M.P. Kummer1,
A.M. Hirt2 and B.J. Nelson11. Institute of Robotics and Intelligent
Systems, ETH Zurich, Zurich, Switzerland; 2. Institute ofGeophysics, ETH Zurich, Zurich, Switzerland
EU-08. Optimial design of a variable stiffness joint using permanent
magnets. M. Hyun1, J. Yoo1, S. Hwang1, J. Choi2, S. Kang2 andS. Kim31. Mechanical Engineering, Yonsei University, Seoul,
South Korea; 2. Intelligent Robotics Research Center, Korea
Institute of Science and Technology, Seoul, South Korea; 3.
Tribology Research Center, Korea Institute of Science andTechnology, Seoul, South Korea

158

PROGRAMPROGRAM

EU-09. Investigation of Microscale Magnetic Forces for Magnet Array
Self-Assembly. S.B. Shetye1, J.S. Agashe1 and D.P. Arnold11.
Electrical and Computer Engineering, University of Florida,
Gainesville, FL, USA
EU-10. The Magnetic Structure Design Analysis of Single Phase LineStart Synchronous Reluctance Motor for Air Conditioner
Compressor. T. Jung1, C. Yun1, H. Cha1 and J. Hong21. Gwang-Ju
Research Center, Korea Institute of Industrial Technology,
Gwangju, South Korea; 2. Dep. of Electrical Engneering,
Changwon Nat’l University, Changwon, South Korea
EU-11. Development and Evaluation of an Active Magnetic Guide forMicrosystems with an Integrated Air Gap Measurement
System. C. Ruffert1, J. Li2, F. Kallage2, B. Denkena2 and
H.H. Gatzen11. Institute for Microtechnology, Leibniz Universität
Hannover, Garbsen, Lower Saxony, Germany; 2. Institute of
Production Engineering and Machine Tools, Leibniz Universität
Hannover, Garbsen, Lower Saxony, Germany

WEDNESDAY
MORNING
8:00

GRAND BALLROOM

Session EV

NANOSTRUCTURED FILMS AND PATTERNEDMEDIA(POSTER SESSION)
Andreas Moser, Session Chair
EV-01. Ordering kinetics of FePt thin films with different crystalline
growth modes. C. Zha1, B. Ma1, Z. Zhang1 and Q. Jin11.
Deparment of Optical Science and Engineering, Fudan
University, Shanghai, China
EV-02. Calorimetric Studies of the A1 to L10 Phase Transformation in
FeNiPt Thin Films. D.C. Berry1,2, K. Barmak1,2, M.A. Kosowski1
and N.M. Cheung11. Dept. of Materials Science and Engineering,
Carnegie Mellon University, Pittsburgh, PA, USA; 2. Data Storage
Systems Center, Carnegie Mellon University, Pittsburgh, PA, USA
EV-03. ROLE OF THE SOFT LAYER IN EXCHANGE-SPRINGFILMS: TEMPERATURE DEPENDENT MAGNETIC
VISCOSITY EFFECTS IN L10 FEPT THIN FILMS AND FE
FEPT BILAYERS. C. Pernechele1, M. Solzi1, R. Pellicelli1,
M. Ghidini1, G. Asti1, F. Casoli2, F. Albertini2 and L. Pareti21.
Physics, University of Parma, Parma, Italy- Pr-, Italy; 2. IMEMCNR, Parma, Parma, Italy
EV-04. Magnetic properties and microstructure of (FePt)77Ag23 alloy
thin films: Segregation effect of Ag in Ll0 phase. F. Yuan1,
H.W. Chang1, Y.D. Yao1, S.N. Hsiao2, S.K. Chen2 and A.C. Sun31.
physics, Acdemia Sinica, taipei, Taiwan; 2. materials science andengeering, Feng Chia University, taichung, Taiwan; 3. physics,
National Taiwan University, taipei, Taiwan

159

EV-05. Grain refining and decoupling in FePt/SiO2 nanogranularfilms for magnetic recording. S. Fong1,3, D. Wei1, F. Yuan1,
K. You1, Y. Yao1, Y. Liou1, C. Yu2 and T. Chin31. Institute ofPhysics, Academia Sinica, Taipei, Taiwan; 2. Department ofApplied Physics, National Kaohsiung University, Kaohsiung,Taiwan; 3. Department of Materials Science and Engineering,
National Tsing Hua University, HsinChu, Taiwan
EV-06. Annealing effects on the magnetic properties of FePd films
grown on Si antidots. C. Yu1 and Y. Yao21. Department of Applied
Physics, National University of Kaohsiung, Kaohsiung, Taiwan; 2.
Institute of Physics, Academia Sinica, Taipei, Taiwan
EV-07. Magnetic Properties of Co/Pt-Pd and Co-Ni/Pt Multilayer
Perpendicular Magnetic Recording Media. N. Inaba1,
S. Igarashi1, F. Kirino2, K. Koike3 and H. Morita31. Department ofElectrical Engineering, Yamagata University, Yonezawa, Japan; 2.
National University of Fine Arts and Music, Taitou-ku, Japan; 3.
Faculty of Engineering, Yamagata University, Yonezawa, Japan
EV-08. Large uniaxial magnetic anisotropy of Co-Pt perpendicular
films induced by lattice deformation. T. Shimatsu1, Y. Okazaki1,
H. Sato1, O. Kitakami2, S. Okamoto2, H. Aoi1, H. Muraoka1 andY. Nakamura11. RIEC, Tohoku University, Sendai, Japan; 2.
IMRAM, Tohoku University, Sendai, Japan
EV-09. Fabrication of percolated perpendicular magnetic (PPM)
recording media at room temperature. M. Rahman1, C. Lai1,
Y. Huang1, V. David1 and N.N. Shams11. Materials Science andEngineering, National Tsing Hua University, Hsinchu, Taiwan
EV-10. FePt patterned media fabricated by deep ultraviolet
lithography and sputtering. L. Qiu1, J. Ding1, A.O. Adeyeye2,
J. Yin1 and J. Chen3,11. Materials Science and Engineering,
National University of Singapore, Singapore, Singapore; 2.
Electrical and Computer Engineering, National University ofSingapore, Singapore, Singapore; 3. Data Storage Institute,Singapore, Singapore
EV-11. Electrodeposition and Characterization of CoPt Thin Films
for Patterned Media. M. Lee1, D. Lee1, H. Kim1, E. Cho1, B. Lee1
and J. Sohn11. Semiconductor Device and Material Lab., Samsung
Advanced Institute of Technology, Yongin-Si, Gyeonggi-Do, South
Korea
EV-12. Influence of magnetic dots on a continuous layer: A new
approach for patterned media. P. Zermatten1, B. Rodmacq1,
L. Prejbeanu1 and G. Gaudin11. SPINTEC (CNRS/CEA),
Grenoble, France
EV-13. He+ Ion Irradiation study of Continuous and Patterned Co/Pd
Multilayers. V.A. Parekh1,2, D. Smith1,2, C. E1,2, J. Rantschler1,2,
S. Khizroev4 and D. Litvinov1,21. Center for Nanomagnetic
Systems, University of Houston, Houston, TX, USA; 2. Electricaland Computer Engineering, University of Houston, Houston, TX,
USA; 3. Chemical and Biomedical Engineering, University of
Houston, Houston, TX, USA; 4. Electrical Engineering, Universityof California-Riverside, Riverside, CA, USA

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PROGRAMPROGRAM

EV-14. Thickness dependence of the switching field and thermal
stability of CoPt/Ru dot arrays. K. Mitsuzuka1, N. Kikuchi2,
T. Shimatsu1, O. Kitakami2, H. Aoi1, H. Muraoka1 andJ.C. Lodder31. RIEC, Tohoku University, Sendai, Japan; 2.
IMRAM, Tohoku University, Sendai, Japan; 3. SMI, MESA+,
University of Twente, Enschede, Netherlands
EV-15. Simulation of Magnetization Reversal in Sub-micron Dots
Formed by Lateral Gradient Magnetic Materials. Z. Zhong1,
H. Zhang1, X. Tang1, K. Tang1 and S. Liu21. State Key Laboratoryof Thin Films and Integrated Devices, University of Electronic
Science and Technology of China, Chengdu, Sichuan, China; 2.
School of Optoelectronic Information, University of Electronic
Science and Technology of China, Chengdu, Sichuan, China

WEDNESDAY
MORNING
8:00

GRAND BALLROOM

Session EWPERPENDICULAR AND LONGITUDINAL
RECORDING(POSTER SESSION)
Akira Kikitsu, Session Chair
EW-01. A comparative study of perpendicular recording media.
S. Greaves1, Y. Kanai2 and H. Muraoka11. RIEC, Tohoku
University, Sendai, Japan; 2. Information and Electronics
Engineering, Niigata Institute of Technology, Kashiwazaki, Japan
EW-02. Modeling of Nonlinear Transition Shift in Perpendicular
Recording Process. Z. Liu1, J.T. Li1,2 and H.N. Phyu11. Data
Storage Institute, Singapore, Singapore; 2. National University ofSingapore, Singapore, Singapore

161

EW-07. Off-track and Azimuth Angle Effects in PerpendicularReplay. H.A. Shute1, J.C. Mallinson2 and D.T. Wilton11. School ofMathematics and Statistics, University of Plymouth, Plymouth,
United Kingdom; 2. Mallinson Magnetics Inc., Belmont, CA,
USA
EW-08. Analytic 3-D Model of a Double Shielded GMR
Perpendicular Head Using a Singular Function Expansion.
P.M. Jermey1, H.A. Shute1 and D.T. Wilton11. School ofMathematics and Statistics, University of Plymouth, Plymouth,
United Kingdom
EW-09. Observation of stray fields from harddisk writer poles up to 2
GHz. M.R. Koblischka1, J. Wei1, T. Sulzbach2, A.B. Johnston3 andU. Hartmann11. Institute of Experimental Physics, University of
the Saarland, Saarbruecken, Germany; 2. Nanoworld Services
GmbH, Erlangen, Germany; 3. Seagate Technology, Derry,
United Kingdom
EW-10. Anisotropic Crystalline Orientation of Micro-grains in
Magnetic Recording Media on Ion-Beam Textured
Substrates. Y. Maekawa1, K. Sato2, T. Mizoguchi1 andE. Chason31. Faculty of Science, Gakushuin University, Tokyo,
Japan; 2. Yamagata Fujitsu Limited, Yamagata, Japan; 3.
Division of Engineering, Brown University, Providence, RI, USA
EW-11. Duplex top recording layered structure for Longitudinal
Magnetic Recording Media with double recording layer
system - Compatibility of low media noise and high resolution-. T.Q. Li1, H. Ohyama1, D. Hasegawa2, S. Saito2, M. Imakawa1
and M. Takahashi2,31. Disk Media Div., Fuji Electric Device
Technology Co., Ltd., 4-18-1, Tukama, Matumoto, Nagano 3900821, Japan; 2. Dept. of Electronic Engng., Grad. School ofEngng., Tohoku University, Aoba 6-6-10, Aramaki, Aoba-ku,
Sendai, 980-8579, Japan; 3. New Industry Creation Hatchery
Center (NICHe), Tohoku University, Aoba 6-6-05, Aramaki,
Aoba-ku, Sendai, 980-8579, Japan

EW-04. Write field analysis of single pole writer encircled by split
shields. Y. Im1, H. Oh1, Y. Kim1 and N. Park21. Samsung
Advanced Institute of Technology, Yongin, Gyeonggi Do, South
Korea; 2. Samsung Electronics, Suwon, Gyeonggi Do, South
Korea

EW-12. Duplex bottom recording layered structure for Longitudinal
Magnetic Recording Media with double recording layer
system (Exchange-decoupling and high controllability of
media properties). H. Ohyama1, D. Hasegawa2, S. Saito2,
M. Imakawa1 and M. Takahashi2,31. Disk Media Div., Fuji
Electric Device Technology Co., Ltd., 4-18-1, Tukama, Matumoto,
Nagano 390-0821, Japan; 2. Dept. of Electronic Engng., Grad.
School of Engng., Tohoku University, Aoba 6-6-05, Aramaki,
Aoba-ku, Sendai, 980-8579, Japan; 3. New Industry Creation
Hatchery Center (NICHe), Tohoku University, Aoba 6-6-10,
Aramaki, Aoba-ku, Sendai, 980-8579, Japan

EW-05. THE WRITING CURRENT OPTIMIZATION OF THE
SHIELDED POLE TYPE HEAD – A SIMULATION STUDY.
C.K. Lim1, H.S. Lee1, H.S. Oh1 and S.H. Choa11. HDD Program
Team, Samsung Advanced Institute of Technology, Suwon, South
Korea

EW-13. Investigation of Higher Recording Density using an Improved
Co-CoO Metal Evaporated Tape with a GMR Reproducing
Head. K. Motohashi1, T. Sato1, T. Samoto1, N. Ikeda1, T. Sato1,
H. Ono1 and S. Onodera11. Chemical Device Business Group,Sony Corporation, Tagajo, Miyagi, Japan

EW-06. Finite Element Analysis of Stress Induced Magnetic
Anisotropy in Perpendicular Writers. S. Song1, W. Yu1,
K. Stoev1, D. Bai1, P. Luo1 and F. Liu11. R&D, Western Digital
Corporation, Fremont, CA, USA

EW-14. Longitudinal magnetic recording tape media using CoCrPtSiO2/Ru bilayers deposited by facing target sputtering.
S. Nakagawa1, H. Fujiura1 and A. Mohamad11. Dept. of PhysicalElectronics, Tokyo Institute of Technology, Tokyo, Tokyo, Japan

EW-03. Micromagnetic Simulation of a Composite Media Using a
Negative Ku Layer. A. Kikitsu1 and T. Maeda11. Storage
Materials & Devices Laboratory, Toshiba Corp., Corporate R&D
Center, Kawasaki, Kanagawa, Japan

162

PROGRAMPROGRAM

EW-15. Use of carbon nitride smoothing layer to improve media
roughness. H. Lee1, J. Kim2, J.A. Bain1 and D.E. Laughlin11.
Data Storage Systems Center, Carnegie Mellon University,
Pittsburgh, PA, USA; 2. Komag, San Jose, CA, USA

WEDNESDAY
MORNING
8:00

GRAND BALLROOM

Session EX

HEAD MATERIALS, SOFT MAGNETIC ALLOYSAND DOMAINS(POSTER SESSION)
Robert O’Handley, Session Chair
EX-01. Mechanism of Step-like Change of Impedance for Thin-film
GMI Element with Inclined Stripe Magnetic Domain.
T. Nakai1, K. Ishiyama2 and J. Yamasaki31. Industrial Technology
Institute, Miyagi Prefectural Government, Sendai, Miyagi-ken,
Japan; 2. Research Institute of Electrical Communication, Tohoku
University, Sendai, Miyagi-ken, Japan; 3. Kyushu Institute ofTechnology, Kitakyushu, Fukuoka-ken, Japan
EX-02. Magnetic Domain Observations in FeCo-base Nanocrystalline
Alloys by Lorentz Microscopy. J. Long1, Y. Qin1, T. Nuhfer1,
M. De Graef1, D.E. Laughlin1 and M.E. McHenry11. Materials
Science and Engineering, Carnegie Mellon University,
Pittsburgh, PA, USA
EX-03. Manipulation of magnetization reversal of permalloy ringelement. C. Chang1, Y. Chang1, C. Lee2, C. Chen1 and J. Wu11.
Physics, National Changhua University of Education, Changhua,
Taiwan; 2. Electrical Engineering, Chungchou Institue ofTechnology, Changhua, Taiwan
EX-04. Magnetization processes of cross-tie states in permalloy thinfilms. M. Lai2, Z. Wei1, C. Chang2 and J. Wu31. National Tsing
Hua University, Hsinchu, Taiwan; 2. National Taiwan University,
Taipei, Taiwan; 3. National Changhua University of Education,
Changhua, Taiwan
EX-05. OBSERVATION OF MAGNETIC DOMAIN PATTERNS IN
BULK BARIUM FERRITE SINGLE CRYSTALS. J. Jalli1,
Y.K. Hong2, S.H. Gee1, C.C. Juan1, H. Han1, G. Abo2, I.T. Nam3,1,
J. Jabal1 and K. Essiam11. Materials Science and Engineering,
University of Idaho, Moscow, ID, USA; 2. Electrical andComputer Engineering, University of Alabama, Tuscaloosa, AL,
USA; 3. Advanced Materials Engineering, Kangwon National
University, Chooncheon, South Korea
EX-06. Vortex evolution in magnetic astroid patterns and chains.
L.K. Verma1 and V. Ng11. Information Storage Materials
Laboratory, Department of Electrical and Computer Engineering,
National University of Singapore, Singapore, Singapore
EX-07. The role of temperature, anisotropy dispersion and roughness
in determining head field rise times calculated withmicromagnetics. A. Kaya1 and J.A. Bain11. Data Storage Center
Systems, Carnegie Mellon University, Pittsburgh, PA, USA

163

EX-08. Effect of Pre-annealing on Final Texture and Magnetic
Induction in Thin-gauged 3% Si-Fe Strips Containing 0.1%
Mn and 0.011% S. S. Cho1, S. Kim1, J. Soh1, N. Heo1 and
S. Han21. Korea Electiric Power Research Institute, Daejeon,South Korea; 2. Chungnam National University, Daejeon, South
Korea
EX-09. Intermediate annealing temperature and the number of final{110} grains in 3% silicon steels. S. Kim1, S. Cho1, J. Soh1 and
N. Heo11. Advanced Materials Research Group, Korea ElectricPower Research Institute, Daejon, South Korea
EX-10. Effect of small deformations (4-19% cold rolling) on the
texture, residual stresses and magnetic properties of a 0.5% Sielectrical steel. M.F. de Campos1, M.J. Sablik2, R. Machado1,
T.K. Hirsch3, R. Magnabosco4, F.G. Landgraf5, C. Gutierrez6 and
A. Bandyopadhyay71. Dimat - Predio 3, Inmetro, Duque deCaxias RJ, RJ, Brazil; 2. Applied Physics Division, Southwest
Research Institute, San Antonio, TX, USA; 3. IWT - Stiftung
Institut für Werkstofftechnik - Bremen, Bremen, Germany; 4. FEI,
Sao Bernardo do Campo SP, SP, Brazil; 5. Dept Metalurgia eMateriais - Escola Politecnica, Universidade de Sao Paulo, Sao
Paulo SP, SP, Brazil; 6. Sandia National Laboratories,
Albuquerque, NM, USA; 7. Texas State University, San Marcos,
TX, USA
EX-11. Magnetic evaluation of the hardening and softening ofthermally aged iron-copper alloys. L.P. Vandenbossche1,
M. Konstantinovic2, L. Dupre1 and E. van Walle21. Electrical
Energy, Systems and Automation, Ghent University, Gent,
Belgium; 2. Belgian Nuclear Research Centre (SCK-CEN), Mol,
Belgium

WEDNESDAY
AFTERNOON
2:00

HARBORSIDE C

Session FA

SYMPOSIUM ON PROBING THE MAGNETICSTRUCTURE OF NANOSTRUCTUREDEXCHANGE
Randall Victora, Session Chair
2:00
FA-01. Probing the Internal Magnetic Structure in Exchange Biased
Bilayers and Trilayers. (Invited) R. Morales1,2, Z.P. Li1,
O. Petracic1,3, S. Roy1, M.R. Fitzsimmons4, M. Vélez2,
I.V. Roshchin1, J. Olamit5, X. Batlle1,6, K. Liu5, S.K. Sinha1,
J.M. Alameda2 and I.K. Schuller11. Physics Department,
University of California San Diego, La Jolla, CA, USA; 2.
Departamento de Física, Universidad de Oviedo, Oviedo, Spain;
3. Experimental Solid State Physics, Imperial College London,
London, United Kingdom; 4. Los Alamos National Laboratory,
Los Alamos, NM, USA; 5. Physics Department, University ofCalifornia Davis, Davis, CA, USA; 6. Departament de Física
Fonamental, Universitat de Barcelona, Barcelona, Spain

164

PROGRAMPROGRAM

2:36

2:24

FA-02. Exchange-bias instability in a bilayer with ion-beam imprinted
stripe pattern of F/AF interfaces. (Invited) K. Theis-Broehl11.
Department of Physics, Ruhr-University Bochum, D-44780Bochum, Germany

FB-03. Magnetoresistive random access memory with dumbbell
shape. Y. Nakatani1, S. Kasai2, K. Kobayashi2, H. Kohno3,
G. Tatara4 and T. Ono11. Department of Computer Science,
University of Electro-Communications, Chofu, Tokyo, Japan; 2.
Kyoto University, Uji, Kyoto, Japan; 3. Osaka University,
Toyonaka, Osaka, Japan; 4. Tokyo Metropolitan University,
Hatioji, Tokyo, Japan

3:12

FA-03. Resonant s-ray scattering studies of magnetism in coupled
nanoparticles and perpendicular anisotropy films. (Invited)
J.B. Kortright11. Materials Sciences Division, Lawrence Berkeley
National Lab, Berkeley, CA, USA
3:48

FA-04. Electric and Magnetic Field control of Exchange Bias. (Invited)
C. Binek1, S. Polisetty1, X. He1, S. Sahoo1, P. Borisov2,
A. Hochstrat2 and W. Kleemann21. Physics and Astronomy,
University of Nebraska, Lincoln, NE, USA; 2. Physics, University
Duisburg-Essen, Duisburg, Germany
4:24

165

2:36

FB-04. Dynamic simulation of toggle mode MRAM operating fieldmargin. S. Wang1, H. Fujiwara2, J. Dou2, Z. Li1 and Y. Huai11.
Grandis Inc, Milpitas, CA, USA; 2. MINT Center and Department
Physics and Astronomy, Unviersity of Alabama, Tuscaloosa, AL,
USA
2:48

FB-05. Low Power Multi-bit Cells for Toggle Magnetic Random
Access Memory. K. Ju11. MagLabs Inc., Monte Sereno, CA, USA
3:00

FA-05. SPIN TRANSFER IN ANTIFERROMAGNETS. (Invited)
M. Tsoi11. Physics Department, The University of Texas at Austin,
Austin, TX, USA

FB-06. Thermal stability and writing margin of the multi-layer GSAF
MRAM. Y. Zheng1, J. Qiu1, P. Luo1, L. An1, K. Li1, G. Han1,
Z. Guo1, S. Tan1, Z. Liu1 and B. Liu11. Spintronics, Media andInterface Division, Data Storage Institute, Singapore, Singapore
3:12

WEDNESDAY
AFTERNOON
2:00

HARBORSIDE A

Session FB

FB-07. Effect of structures of NiFe-based free layers in toggle
magnetic random access memories. Y. Fukumoto1 and
N. Kasai11. System Devices Research Laboratories, NEC
Corporation, Sagamihara, JapanMAGNETIC MEMORY AND ELEMENTS
William Gallagher, Session Chair

3:24

2:00

FB-08. Analysis of thermal relaxation rate for magnetization in toggle
MRAM. M. Dimian1 and H. Kachkachi21. Max Planck Institutefor Mathematics in the Sciences, Leipzig, Germany; 2. Grouped’Etude de la Matière Condensée, Université de Versailles St.
Quentin, Versailles, France

FB-01. Role of thickness imbalance, Neel coupling, and intrinsic
anisotropy mismatch in Toggle MRAM. D. Worledge1,
P.L. Trouilloud1, D.W. Abraham1 and W.J. Gallagher11. TJ Watson
Research Center, IBM, Yorktown Heights, NY, USA

3:36

2:12

FB-02. Adjacent Cell Interaction and MRAM Error Rate Prediction.
L. Zhu1 and Y. Guo21. Husko Inc., Milpitas, CA, USA; 2. MagIC
Technologies, Inc., Milpitas, CA, USA

FB-09. Magnetization reversal technique of DyTbFeCo films at
magnetic field as low as 1/6 of coercivity using a stress-induced
magnetic anisotropy. M. Yamada1 and S. Nakagawa11. Dept. ofPhysical Electronics, Tokyo Institute of Technology, Tokyo, Tokyo,
Japan

166

PROGRAMPROGRAM

3:48

2:36

FB-10. Effect of Damping Constant on Magnetic Switching in Spin
Torque Driven Perpendicular MRAM. X. Zhu1 and J. Zhu11.
Electrical and Computer Engineering, Carnegie Mellon Univ.,
Pittsburgh, PA, USA

FC-02. Nucleation and propagation of domain walls in aperpendicularly magnetised nanowire. L. San Emeterio
Alvarez1, M. Hickey1, C.H. Marrows1, K.Y. Wang2, A. Blackburn2,
D. Williams2 and D. McGrouther31. Condensed Matter, Physics &Astronomy University of Leeds, Leeds, United Kingdom; 2.
Hitachi Cambridge Laboratory, Cambridge, United Kingdom; 3.
Physics & Astronomy, University of Glasgow, Glasgow, United
Kingdom

4:00

FB-11. Scalability of domain wall pinning in permalloy
nanostructures for ultra high density data storage
applications. D. Read1, A. Jausovec1, D. Petit1, O. Petracic1 and
R.P. Cowburn11. Department of Physics, Imperial College
London, London, United Kingdom

4:12

167

2:48

FC-03. Influence of transverse magnetic fields and nanowire
geometry on domain wall propagation. M.T. Bryan1,
D. Atkinson2, T. Schrefl1 and D.A. Allwood11. Department ofEngineering Materials, University of Sheffield, Sheffield, United
Kingdom; 2. Department of Physics, Durham University,
Durham, United Kingdom

FB-12. Current Confined Effect of Magnetic Nano-Current-Channel(NCC) for Magnetic Random Access Memory. H. Meng1 andJ. Wang11. Electrical Engineering, University of Minnesota,
Minneapolis, MN, USA

3:00

4:24

FC-04. Systematic tuning of magnetization reversal properties in
Permalloy nanowires using sloped ends. O. Petracic1, D. Read1
and R.P. Cowburn11. Department of Physics, Imperial College
London, London, United Kingdom

FB-13. Suppression of switching-field variation by surface oxidation
depending on the shape of the CoFeB free layer. T. Takenaga1,
T. Kuroiwa1, J. Tsuchimoto2, R. Matsuda2, S. Ueno2, H. Takada1,
Y. Abe1 and Y. Tokuda11. Advanced Technology R&D Center,
Mitsubishi Electric Corporation, Amagasaki, Hyogo, Japan; 2.
Production and Technology Unit, Renesas Technology
Corporation, Itami, Hyogo, JapanWEDNESDAY
AFTERNOON
2:00

HARBORSIDE B

Session FC

PATTERNED STRUCTURES III
Manfred Schabes, Session Chair

3:12

FC-05. Vortices in ferromagnetic elements with perpendicularanisotropy. C. Moutafis2, S. Komineas1, C.A. Vaz2, T. Bland2 andP. Eames31. Max-Planck Institute for the Physics of Complex
Systems, Dresden, Germany; 2. Cavendish Laboratory, Universityof Cambridge, Cambridge, United Kingdom; 3. NVE Corporation,
Eden Prairie, MN, USA

3:24

FC-06. Probing the Potential Landscape in Asymmetric andSymmetric Inwards and Outwards Notches in Magnetic
Nanowires. A. Jausovec1, D. Petit1, D. Read1 and R.P. Cowburn11.
Physics, Imperial College London, London, United Kingdom

3:36
2:00

FC-01. SEMPA studies of size dependent transition from shape to
exchange dominated magnetic nanostructure. (Invited)
W. Uhlig11. Electron Physics Group, NIST, Gaithersburg, MD,
USA

FC-07. Sub ns-magnetization dynamics of a single cross-tie wall.
K. Kuepper1, M. Buess2, J. Raabe2, C. Quitmann2, L. Bischoff1
and J. Fassbender11. Ion Beam Physics and Materials Research,
FZ Rossendorf, Dresden, Germany; 2. Swiss Light Source, Paul
Scherrer Institut, 5232 Villigen, - PSI, Switzerland

168

PROGRAM
3:48

FC-08. Layer-resolved Study of Vortex Formation in Heterostructure
Circular and Square Ring Arrays with Off-center Hole.
V. Rose1, V. Metlushko2, B. Ilic3 and J.W. Freeland41. Center for
Nanoscale Materials, Argonne National Laboratory, Argonne, IL,
USA; 2. Electrical and Computer Engineering, University of
Illinois at Chicago, Chicago, IL, USA; 3. Cornell Nanofabrication
Facility, Cornell University, Ithaca, NY, USA; 4. Advanced Photon
Source, Argonne National Laboratory, Argonne, IL, USA
4:00
FC-09. Spin-wave spectrum of NiFe/Cu/NiFe nano-pillars withelliptical cross-section. G. Carlotti1, G. Gubbiotti2,1,
M. Madami1, S. Tacchi1 and T. Ono31. Dipartimento di Fisica,
University of Perugia, 06123, Perugia, Italy; 2. Research center
SOFT-INFM-CNR, Universita’ di Roma “La Sapienza”,, Italy, I00185, Roma, Italy; 3. Institute for Chemical Research, Kyoto
University, Uji 611-0011, Kyoto, Japan
4:12
FC-10. Correlation of edge roughness to nucleation field andnucleation field distribution in patterned Permalloy elements.
J.W. Lau1, R.D. McMichael1, M.A. Schofield2 and Y. Zhu21.
Metallurgy Division, National Institute of Standards andTechnology, Gaithersburg, MD, USA; 2. Center for Functional
Nanomaterials, Brookhaven National Laboratory, Upton, NY,
USA
4:24

PROGRAMWEDNESDAY
AFTERNOON
2:00

169

HARBORSIDE D

Session FD

SPIN TORQUE: TUNNELING
Jonathan Sun, Session Chair
2:00
FD-01. Dependence of spin-torque diode effect spectra on free layer
thickness in magnetic tunnel junctions. H. Kubota1,
A. Fukushima1, Y. Otani1, S. Yuasa1, K. Ando1, H. Maehara2,
K. Tsunekawa2, D.D. Djayaprawira2, N. Watanabe2 andY. Suzuki3,11. Nanoelectronics Research Institute, National
Institute of Advanced Industrial Science and Technology (AIST),
Tsukuba, Ibaraki, Japan; 2. Electron Device Equipment Division,
Canon ANELVA Corporation, Fuchu, Tokyo, Japan; 3. Graduate
School of Engineering Science, Osaka University, Toyonaka,
Osaka, Japan
2:12
FD-02. Systematic study of spin-transfer induced precession in MgObased magnetic tunnel junctions. A.M. Deac2,1, A. Fukushima1,
H. Kubota1, Y. Suzuki2,1, S. Yuasa1, H. Maehara3, K. Tsunekawa3,
D.D. Djayaprawira3 and N. Watanabe31. Nanoelectronics ResearchInstitute, National Institute of Advanced Industrial Science andTechnology (AIST), Tsukuba, Japan; 2. Graduate School ofEngineering Science, Osaka University, Osaka, Japan; 3. Electron
Device Devision, Canon ANELVA Corporation, Fuchu, Japan
2:24

FC-11. Measurement of magnetic edge properties in stripe arrays.
R.D. McMichael1, B.B. Maranville1 and D.W. Abraham21.
Metallurgy Division, NIST, Gaithersburg, MD, USA; 2. IBM T.J.
Watson Research Center, Yorktown Heights, NY, USA
4:36
FC-12. A Study on Spin wave Resonance in Patterned Trilayer Films.
Y. Zhai1,3, D. Zhang1, Y. Zhang1, J. Shi2, P. Wong3, D. Niu3, G. Li3,
Y. Xu3 and H. Zhai41. Department of Physics,Southeast
University, Nanjing, China; 2. Department of Physics, Universityof California, Riverside, CA, USA; 3. Department of Electronics,
University of York, York, United Kingdom; 4. Center for Materials
Analysis, National Laboratory for Solid State Microstructures,
Nanjing University, Nanjing, China

FD-03. Effect of Bias on Spin-Transfer Torque in Magnetic Tunnel
Junctions. I. Theodonis1,2, N. Kioussis1, A. Kalitsov1, M. Chshiev3
and W.H. Butler31. Physics, California State University
Northridge, Northridge, CA, USA; 2. Physics, National Technical
University Athens, Zografou, Athens, Greece; 3. MINT Center,
University of Alabama, Tuscaloosa, AL, USA
2:36
FD-04. Spin-Transfer Torque and Biquadratic Exchange Coupling in
Double-Barrier Magnetic Tunnel Junctions. I. Theodonis1,2,
N. Kioussis1 and A. Kalitsov11. Physics & Astronomy, California
State University Northridge, Northridge, CA, USA; 2. Physics,
National Technical University Athens, Zografou, Athens, Greece

4:48
2:48
FC-13. Mechanical-FMR studies of individual Py disks. G. deLoubens1, O. Klein1, V. Naletov1, H. Hurdequint2 and J. Ben
Youssef31. Service de Physique de l’Etat Condensé, Commissariat
à l’Energie Atomique, Gif-Sur-Yvette, France; 2. Laboratoire dePhysique des Solides, Université Paris-Sud, Orsay, France; 3.
Laboratoire de Magnétisme de Bretagne, Université de Bretagne
Ouest, Brest, France

FD-05. RF noise and spin-transfer torque in tunnelingmagnetoresistive heads. M. Mizuguchi1, Y. Suzuki1, Y. Uehara2,
H. Akimoto2, H. Kanai2 and K. Kobayashi21. Division ofMaterials Physics, Department of Physical Science, Osaka
University, Osaka, Japan; 2. Advance Head Technology
Development Department, Fujitsu Limited, Nagano, Japan

170

PROGRAM
3:00

FD-06. Spin torque influence on the noise spectrum of TMR readheads. S. Petit1, C. Baraduc1, C. Thirion1, U. Ebels1, Y. Liu2,
M. Li2, P. Wang2 and B. Dieny11. SPINTEC, CEA/CNRS,
Grenoble, France; 2. Headway Technologies, Milpitas, CA, USA

PROGRAMWEDNESDAY
AFTERNOON
2:00

171

HARBORSIDE E

Session FE

MULTILAYER FILMS AND SUPERLATTICES II
Bin Lu, Session Chair

3:12

FD-07. Spin and Energy Transfer in Magnetic Tunnel Junctions.
Z. Yang1 and S. Zhang11. Department of Physics and Astronomy,
University of Missouri-Columbia, Columbia, MO, USA
3:24

FD-08. Reduction of critical current density for spin-transfer
switching in MTJ structures. Y. Huai1, Y. Ding1, Z. Li1, Z. Diao1,
S. Wang1, A. Panchula1, D. Apalkov1, A. Driskill-Smith1, E. Chen1
and L. Wang11. Grandis Inc, Milpitas, CA, USA
3:36

FD-09. Current-induced magnetization switching in MgO basedmagnetic tunnel junctions with synthetic ferromagnetic freelayers. S. Ikeda1, J. Hayakawa2,1, Y. Lee1, R. Sasaki1,
F. Matsukura1, T. Meguro1, H. Takahashi2 and H. Ohno11. RIEC,
Tohoku University, Sendai, Japan; 2. ARL, Hitachi Ltd.,, Tokyo,
Japan
3:48

FD-10. Dielectric strength of low RA MgO tunnel barrier layers for
SMT MRAM. P.G. Mather1, R.W. Dave1, F.B. Mancoff1,
N.D. Rizzo1 and B.N. Engel11. Freescale Semiconductor, Inc.,
Chandler, AZ, USA
4:00

FD-11. Impurity-induced resonant spin torque and spin transport ina magnetic tunnel junction. A. Manchon1, N. Ryzhanova1,2,
A. Vedyayev1,2 and B. Dieny11. CEA-Grenoble/ DRFMCSPINTEC, Grenoble, France; 2. Physics, Lomonosov University,
Moscow, Russian Federation
4:12

FD-12. Spin transfer experiments on(Ga,Mn)As/(In,Ga)As/(Ga,Mn)As tunnel junctions. J. George1,
M. Elsen1, O. Boulle1, H. Jaffres1, R. Mattana1, V. Cros1, A. Fert1,
A. Lemaitre2 and G. Faini21. Unité Mixte de Physique CNRSThales, Palaiseau, France; 2. Laboratoire de Photonique etNanostructures, Marcoussis, France

2:00

FE-01. Influence of exchange coupling and Dipolar interaction onmagnetic configurations in perpendicular [Pt /Co]n/TbFe and[Pt /Co]n/Pt/TbFe. S. Mangin1,2, E.E. Fullerton1, T. Hauet2,
P. Fischer3, D.H. Kim3, J. Kortright3, K. Chesnel3 andE. Arenholz31. CenterHitachi Global Storage Technologies, San
Jose, CA, USA; 2. Laboratoire de Physique des Matériaux,
Nancy-University CNRS, Vandoeuvre, France; 3. LBNL, Berkeley,
CA, USA

2:12

FE-02. Ultrafast magnetization dynamics in high perpendicularanisotropy [Co/Pt]n multilayers. A. Barman1,3, S. Wang1,
O. Hellwig2, A. Berger2, E. Fullerton2 and H. Schmidt11. School ofEngineering, University of California Santa Cruz, Santa Cruz,
CA, USA; 2. Hitachi Global Storage Technologies, San Jose
Research Center, San Jose, CA, USA; 3. NanoCenter and Physics
and Astronomy, University of South Carolina, Columbia, SC, USA

2:24

FE-03. Coupled Precession Modes in Indirect Exchanged-Coupled[Pt/Co]-Co Thin Films. S.A. Michalski1, J. Zhou1, R. Skomski1
and R.D. Kirby11. Physics and Astronomy and Nebraska Center
for Materials and Nanoscience, University of Nebraska, Lincoln,
NE, USA

2:36

FE-04. Asymmetrical domain nucleation and unusual magnetization
reversal of ultrathin Co films and [Co/Pt]nmultilayers withperpendicular anisotropy. Y.L. Iunin1, Y.P. Kabanov1,
V.I. Nikitenko1,3, X.M. Cheng2, D. Clarke2, O.A. Tretiakov1,
O. Tchernyshyov2, A.J. Sharpiro3, R.D. Shull3 and C.L. Chien21.
Institute of Solid State Physics, Russian Academy of Sciences,
Chernogolovka, Russian Federation; 2. Johns Hopkins University,
Baltimore, MD, USA; 3. National Institute of Standards andTechnology, Gaithersburg, MD, USA

172

PROGRAMPROGRAM

173

2:48

3:48

FE-05. Structural and magnetic studies of Co layer in epitaxiallygrown Fe/Co bilayers. S. Wang1, C. Wang2, A. Kohn2, S. Lee3,
J.P. Goff4, L.J. Singh4, Z.H. Barber4 and R.C. Ward41. Departmentof Physics, University of Oxford, Oxford, United Kingdom; 2.
Department of Materials, University of Oxford, Oxford, United
Kingdom; 3. Department of Physics, University of Liverpool,Oxford, United Kingdom; 4. Department of Material Science andMetallurgy, University of Cambridge, Cambridge, United
Kingdom

FE-10. Anomalous X-Ray Diffraction to Resolve Structure and Strainof Nearly Lattice Matched Layers within Magnetic Thin
Films. K. Krycka1,2, C. Kao1,2, J. Beaujour3 and A. Kent31.
Physics, State University of New York, Stony Brook, NY, USA; 2.
National Synchrotron Light Source, Brookhaven National
Laboratory, Upton, NY, USA; 3. Physics, New York University,
New York, NY, USA

4:00
3:00

FE-06. Study of Néel orange peel coupling on surfaces with controlled
artificial roughness. S. Chang1 and Y. Hao11. Materials Scienceand Engineering, University of Texas at Arlington, Arlington, TX,
USA

FE-11. Modulated magnetization depth profile in dipolarly coupledmagnetic multilayers. S. Bedanta1, O. Petracic1,2, E. Kentzinger3,
W. Kleemann1, U. Rücker3, T. Brückel3, A. Paul3, S. Cardoso4 and
P.P. Freitas41. Angewandte Physik, Universität Duisburg-Essen,
Duisburg, Germany; 2. Department of Physics, Imperial College
London, London, United Kingdom; 3. IFF, Forschungszentrum
Jülich, Jülich, Germany; 4. INESC, Lisbon, Portugal

3:12
4:12
FE-07. Non-destructive characterization of buried interfaces.
W. Olovsson1, E. Holmström2, O. Karis1, M. Gorgoi4,
S. Svensson1, G. Andersson1, I.A. Abrikosov3, A.M. Niklasson3,
B. Johansson1, G. Öhrwall1, M. Marcellini1, F. Schäfers4,N. Mårtensson1 and W. Eberhardt41. Department of Physics,
Uppsala University, Uppsala, Sweden; 2. Theoretical Division,
Los Alamos National Laboratory, Los Alamos, NM, USA; 3.
Department of Physics and Measuremt Technology, Linköping
University, Linköping, Sweden; 4. BESSY, Berlin, Germany

3:24

FE-08. Probing magnetization reversal in reciprocal space.
C. Marrows1, J.A. Gonzalez1,2, L.A. Michez1,3, C.J. Kinane1,
M.C. Hickey1, A. Potenza1, B.J. Hickey1, S.M. Weekes4,
F.Y. Ogrin4, M. Wolff5, T.R. Charlton6 and S. Langridge61. Dept.
of Physics and Astronomy, University of Leeds, Leeds, West
Yorkshire, United Kingdom; 2. Departamento de Fisica,
Universidad de Castilla-La Mancha, Ciudad Real, Spain; 3.
CRMCN-CNRS UPR 7251, Universite Aix-Marseille 2, Marseille,
France; 4. School of Physics, University of Exeter, Exeter, United
Kingdom; 5. Institut Laue Langevin, Grenoble, France; 6. ISIS,
Rutherford Appleton Laboratory, Chilton, Oxon, United Kingdom

FE-12. Reorientation effects and switching instabilities in synthetic
antiferromagnets. U.K. Rossler1 and A.N. Bogdanov11. IFW
Dresden, Dresden, Germany

4:24

FE-13. Exchange stiffness of hcp Co1-x Mx (M=Pt, Ru, Cr)ferromagnets. E. Girt1, O.N. Mryasov2 and A.Y. Dobin11.
Seagate Technology, Freemont, CA, USA; 2. Seagate Research,
Pittsburgh, PA, USA

4:36

FE-14. Magnetic Reversal Phenomena in Pseudo Spin Valve Films
with Perpendicular Anisotropy. F. Ilievski1, J.C. Perkinson1 andC.A. Ross11. Department of Materials Science and Engineering,
Massachusetts Institute of Technology, Cambridge, MA, USA

4:48
3:36

FE-09. Study of interface structure in magnetic multilayers using xray standing waves. A. Gupta1, D. Kumar1 and C. Meneghini21.
Indore Center, UGC-DAE Consortium for Scientific Research,
Indore, M.P., India; 2. Dip Di Fisica “E. Amaldi”, Università diRoma Tre, I-00146, Roma, Italy

FE-15. Fabrication and Magnetic Behavior of Co/Cu Multilayered
Nanowires. L. Tan1 and B.J. Stadler21. Department of Chemical
Engineering and Materials Science, University of Minnesota,
Minneapolis, MN, USA; 2. Department of Electrical andComputer Engineering, University of Minnesota, Minneapolis,
MN, USA174

PROGRAMWEDNESDAY
AFTERNOON
2:00

PROGRAM

ESSEX

Session FF

DRUG DELIVERY AND SEPARATION
Sara Majetich, Session Chair
2:00

FF-01. Nanosized Magnetic Drug Carrier Systems. (Invited) P. deMorais11. Instituto de Fisica, Universidade de Brasilia, Brasilia,
DF, Brazil

175

3:24
FF-06. Magnetite nanoparticles with almost bulk magnetic
properties: the role of the surfactant. P. Guardia1, B. BatlleBrugal1, A.G. Roca2, O. Iglesias1, M. Morales2, C.J. Serna2,
A. Labarta1 and X. Batlle11. Departament de Física Fonamental
and Institut de Nanociència i Nanotecnologia, U. Barcelona,
Barcelona, Spain; 2. Instituto de Ciencia de los Materiales deMadrid, CSIC, Madrid, Spain
3:36
FF-07. The Influence of Temperature on the Magnetic Behaviour of
Colloidal Cobalt Nanoparticles. C. Dennis1, G. Cheng2,
K. Baler1, B.B. Maranville1, A.R. Hight Walker2 and R.D. Shull11.
Metallurgy Division/MSEL, NIST, Gaithersburg, MD, USA; 2.
Optical Technology Division/PL, NIST, Gaithersburg, MD, USA

2:36
3:48
FF-02. Synthesis of Ibuprofen Loaded Magnetic Solid Lipid
Nanoparticles. X. Pang1,2, J. Chen1, J. Zhou1, M. Yu1, F. Cui2 andW. Zhou11. AMRI/Chemistry, University of New Orleans, New
Orleans, LA, USA; 2. Dept. of Pharmacy, Shenyang
Pharmaceutical Univ., Shenyang, China

2:48

FF-03. Dramatic increase in stability and longevity of enzymes
attached to monodispersive iron nanoparticles. A.M. Sharma1,
P. Kornacki2, A. Paszczynski2, J. Anthony1, D. Meyer1 andY. Qiang11. Physics, University of Idaho, Moscow, ID, USA; 2.
Environmental Biotechnology Institute and Microbiology
Molecular biology and biochemistry, University of Idaho,
Moscow, ID, USA

3:00

FF-04. Design and Synthesis of Biodegradable Magnetic
Nanocomposite Carriers for In Vivo Biomedical Applications.
X. Liu1, M.D. Kaminski1, H. Chen1, M. Torno1 and .J. Rosengart11.
Neurology, The University of Chicago, Chicago, IL, USA

3:12

FF-05. Preparation of spherical monodisperse nanoparticles of γFe2O3 from an aqueous solution containing complex
carbohydrate. R. Shimazu1, M. Tada1, T. Nakagawa1, A. Sandhu2,
H. Handa3 and M. Abe11. Department of Physical Electronics,
Tokyo Institute of Technology, Tokyo, Japan; 2. Quantum
Nanoelectronics Research Center, Tokyo Institute of Technology,
Tokyo, Japan; 3. Graduate School of Bioscience andBiotechnology, Tokyo Institute of Technology, Yokohama, Japan

FF-08. Design and Imaging of Plasmonic Magnetic Nanoparticles.
J. Lim1, R.D. Tilton1,3, A. Eggeman2, F. Lanni4, R. Erb5, B. Yellen5
and S.A. Majetich21. Chemical Engineerijng, Carnegie Mellon
University, Pittsburgh, PA, USA; 2. Physics, Carnegie Mellon
University, Pittsburgh, PA, USA; 3. Biomedical Engineering,
Carnegie Mellon University, Pittsburgh, PA, USA; 4. Biological
Sciences, Carnegie Mellon University, Pittsburgh, PA, USA; 5.
Mechanical Engineering, Duke University, Durham, NC, USA
4:00
FF-09. Electroless CoNiWP magnetic films for the application inmagnetically targeted therapy. H. Cheng1, S. Xu1, S. Zou2, Q.
Zhang1, J. Zhang2, W. Zhao1, J. Guan1 and Z. Sun11. State Key
Laboratory of Advanced Technology for Materials Synthesis andProcessing, Wuhan University of Technology, Wuhan, Hubei
province, China; 2. Department of General Surgery of Tongji
Hospital, Tongji Medical College of Huazhong University of
Science and Technology, Wuhan, Hubei province, China
4:12
FF-10. Ferromagnetic dipole-pair tweezers for biomedical
applications. F. Ogrin1, P. Winlove1 and P.G. Petrov11. School ofPhysics, University of Exeter, Exeter, United Kingdom
4:24
FF-11. Development Of Functional Coated Magnetic Nanoparticles
For Bio-separation. C. Yu1, K.Y. Tam2, C.H. Lo3 andE.S. Tsang11. Chemistry, University of Reading, Reading,
Berkshire, United Kingdom; 2. Physical Chemistry, AstraZeneca,
Macclesfield, Cheshire, United Kingdom; 3. Center for
Nondestructive Evaluation and Ames Laboratory, Iowa State
University, Ames, Iowa, IA, USA

176

PROGRAMPROGRAM

4:36

2:36

FF-12. An ab initio investigation of electronic structure andmagnetism of free and supported Iron Porphyrin molecules.
P.M. Panchmatia1, B. Sanyal1, H. Wende2, O. Eriksson1 and
P.M. Oppeneer11. Dept. of Physics, Uppsala University, Uppsala,Sweden; 2. Institute for Experimental Physics, Free University,
Berlin, Germany

FG-04. Compression-induced Texture Change in NiMnGa-PolymerComposites observed by Synchrotron Radiation.
N. Scheerbaum1, D. Hinz1, O. Gutfleisch1, W. Skrotzki2 and
L. Schultz11. Institut für Metallische Werkstoffe, IFW-Dresden, D01171 Dresden, Germany; 2. Institut für Strukturphysik,Technische Universität Dresden, D-01062 Dresden, Germany

4:48

2:48

FF-13. Magnetic separation of paramagnetic nano-particles in gas.
H. Okada1, H. Okuyama1, M. Uda1 and N. Hirota11. National
Institute for Materials Science, Tsukuba, Ibaraki, JapanWEDNESDAY
AFTERNOON
2:00

177

LAUREL

Session FG

MAGNETO-ELASTIC MATERIALSHarry Radousky, Session Chair

FG-05. Evidence of Magnetoelastic Spin Ordering in Dilute Magnetic
Oxides. G.F. Dionne1,21. Lincoln Laboratory, MIT, Lexington,
MA, USA; 2. Department of Materials Science and Engineering,
MIT, Cambridge, MA, USA
3:00

FG-06. Magnetic properties of Tb0.28Dy0.57Ho0.15Fe2-xMnx [x=0, 0.05,
0.1, 0.15, 0.2]. J. S.Narayana1, G. Markandeyulu1 andK. Balasubramaniam21. Department of Physics, Indian Institute ofTechnology Madras, Chennai, Tamil Nadu, India; 2. Departmentof Mechanical Engineering, Indian Institute of Technology
Madras, Chennai, Tamil Nadu, India

2:00
3:12
FG-01. Magnetic and Magnetoelastic Properties of Ga-substituted
Cobalt Ferrite. S. Song1,2, C. Lo3, S. Lee3, S. Aldini1, J. Snyder4
and D. Jiles41. Materials and Engineering Physics Program, Ames
Laboratory, US Dept. of Energy, Ames, IA, USA; 2. Department ofMaterials Science and Engineering, Iowa State University, Ames,
IA, USA; 3. Center for Nondestructive Evaluation, Ames, IA,
USA; 4. Wolfson Centre for Magnetics, Cardiff University, Cardiff,
United Kingdom
2:12

FG-02. Magnetostriction of Ternary Fe-Ga-X (X = C, V, Cr, Co, Rh)
Alloys. A.E. Clark1, J.B. Restorff2, M. Wun-Fogle2,
K.B. Hathaway3, T.A. Lograsso4 and E. Summers51. Clark
Associates, Adelphi, MD, USA; 2. Code 617, Naval Surface
Warfare Center, Carderock Division, West Bethesda, MD, USA; 3.
University of Maryland, College Park, MD, USA; 4. Ames
Laboratory, Ames, IA, USA; 5. Etrema Products, Inc., Ames, IA,USA

FG-07. An Experimental Investigation into the Dynamic Performanceof Iron-Gallium Alloys. J. Yoo1 and A.B. Flatau11. Aerospace
Engineering, University of Maryland, College Park, MD, USA
3:24

FG-08. Modeling of Magnetostrictive Galfenol Sensor and Validation
using Four Point Bending Test. S. Datta1, J. Atulasimha1 and
A.B. Flatau11. Aerospace Engineering, University of Maryland,College Park, MD, USA
3:36

FG-09. Actuation Field in Martensitic Ni50.4Mn25.8Ga23.8 P. Zhao1,
J. Cullen1, J. Cui1 and M. Wuttig11. Dept. of Mater. Sci. and Eng.,
University of Maryland, College Park, MD, USA

2:24
3:48
FG-03. Study of Thermal Mechanical Processed FeGa/Terfenol-D
Composites. M. Daniil3, S. Cheng3, M. Marinescu1,
G.C. Hadjipanayis1 and T.A. Lograsso21. Dept. of Physics andAstronomy, University of Delaware, Newark, DE, USA; 2. Iowa
State University, Ames, IA, USA; 3. Naval Research Laboratory,
Washington, DC, USA

FG-10. Bulk ferromagnetism in BiFeO3 of higher structuralsymmetry. R. Mazumder1, P. Devi1, D. Bhattacharya1,
P. Choudhury1, A. Sen1 and M. Raja21. Electroceramics, Central
Glass and Ceramic Research Institute, Kolkata, India; 2. Defense
Metallurgical Research Laboratory, Hyderabad, India

178

PROGRAMPROGRAM

4:00

2:12

FG-11. Does Twin Boundary Affect The Resistivity of single crystal
Ni49Mn29Ga22 Heusler Alloy? V.K. Srivastava1 and
R. Chatterjee11. Physics, Indian Institute Of Technology Delhi,
New Delhi, India
4:12
FG-12. Effect of B on the Microstructure and Magnetostriction ofZoned Dy0.7Tb0.3Fe1.95. A. Chelvane1, M. Palit1, S. Pandian1,
R. Balamuralikrishnan1, A.K. Singh1, V. Chandrasekaran1 and
G. Markandeyulu21. Defence Metallurgical Research Laboratory,
Hyderabad, Andhra Pradesh, India; 2. Department of Physics,
Indian Institute of Technology Madras, Chennai, Tamil Nadu,
India
4:24
FG-13. Stress dependence and effect of plastic deformation onmagnetic hysteresis and anhysteretic magnetization of FeNi32% films. P. Finkel1 and S. Lofland21. College of Engineering,
Drexel University, Philadelphia, PA, USA; 2. Rowan University,
Glassboro, NJ, USA

179

FH-02. Understanding local response by manipulation offerromagnetic nano-elements in TEM. L. Huang1,2, T. Beetz1,
M.A. Schofield1, M. Beleggia1 and Y. Zhu1,21. Brookhaven
National Laboratory, Upton, NY, USA; 2. Department of Physics
and Astronomy, State University of New York at Stony Brook,
Stony Brook, NY, USA

2:24

FH-03. Magnetic Shape Anisotropy in Nanopatterned Co
Ferromagnets using Off-axis Electron Holography andLorentz Microscopy. N. Agarwal1, D.J. Smith1,2 and
M.R. McCartney21. School of Materials, Arizona State University,
Tempe, AZ, USA; 2. Department of Physics, Arizona State
University, Tempe, AZ, USA

2:36

4:36
FG-14. Magnetic Anisotropy for Ni2MnGa above Martensitic
Transition Temperature. M. Matsui1, S. Yoshimura1,
T. Nakakura1, Y. Takeda1 and H. Asano11. Crystalline Materials
Science, Nagoya University, Nagoya, Aichi Prefecture, Japan
4:48
FG-15. New 3-D shaped polycrystalline and composite-containing
active magnetostrictive materials. N. Lupu1, H. Chiriac1,
M. Valeanu2 and I. Mihalca31. Magnetic Materials and Devices,
National Institute of R&D for Technical Physics, Iasi, Romania;
2. National Institute of Materials Physics, Bucharest-Magurele,
Romania; 3. Condensed Matter Research Institute, Timisoara,
Romania

WEDNESDAY
AFTERNOON
2:00

DOVER

Session FH

FH-04. Electron Holography Imaging of Domain Structures in Co
Nanoparticle Monolayers. K. Yamamoto1,2, S.A. Majetich3,
M.R. McCartney1, M.S. Sachan3, S. Yamamuro4, T. Hirayama2 andD.J. Smith11. Center for Solid State Science, Arizona State
University, Tempe, AZ, USA; 2. Japan Fine Ceramics Center, 2-41 Mutsuno, Atsuta-ku, Nagoya, Japan; 3. Physics, Carnegie
Mellon University, Pittsburgh, PA, USA; 4. Materials Science andEngineering, Nagoya Institute of Technology, Nagoya, Japan

2:48

FH-05. Spin-transport of hot electrons in metallic ferromagnets usingtransmission and scattering detection modes of BEEM.
T. Banerjee1, E. Haq1, J.C. Lodder1 and R. Jansen11. SMI,Facultyof EWI, MESA+ Institute for Nanotechnology, University ofTwente, Enschede, Netherlands

3:00

MAGNETIC MICROSCOPY AND IMAGING I
Yimei Zhu, Session Chair
2:00
FH-01. A Lorentz Microscopy study of thin magnetic FePt and FePd
layers with perpendicular anisotropy. A. Masseboeuf1,
A. Marty1, C. Gatel1 and P. Bayle-Guillemaud11. DRFMC/SP2M,
CEA Grenoble, Grenoble, France

FH-06. Comparative study of ferromagnetic domains for ultrathin
Mn on Fe(001) and Ag/Fe(001). C. Kuo1,2, K. Lin1, H. Kang1,
Y. Chan3 and D. Wei31. Department of Physics, National Sun-Yat
Sen University, Kaohsiung, Taiwan; 2. Center for Nanoscienceand Nanotechnology, National Sun Yat Sen University, Kaohsiung,Taiwan; 3. National Synchrotron Radiation Research Center,
Hsinchu, Taiwan

180

PROGRAMPROGRAM

3:12

4:12

FH-07. Magnetization dynamics in patterned structures imaged using
time-resolved photoemission electron microscopy.
D.J. Keavney1, X. Han1, M. Grimsditch2, J. Meersschaut2,3,
A. Hoffmann2, Y. Ji2, J. Sort4, J. Nogués4, R. Divan5, J. Pearson2,
K.Y. Guslienko2 and S.D. Bader21. Advanced Photon Source,
Argonne National Laboratory, Argonne, IL, USA; 2. Materials
Science Division, Argonne National Laboratory, Argonne, IL,
USA; 3. Instituut voor Kern- en Stralingsfysica and INPAC,
Leuven, Belgium; 4. Institució Catalana de Recerca i Estudis
Avançats (ICREA) and Departament de Física, UniversitatAutònoma de Barcelona, Barcelona, Spain; 5. Center for
Nanoscale Materials, Argonne National Laboratory, Argonne, IL,
USA

FH-12. Microwave assisted switching of micron sized elements.
G. Woltersdorf1, C.H. Back1 and D. Weiss11. Physics, Universityof Regensburg, Regensburg, Germany

3:24

FH-08. Imaging vortex dynamics in confined magnetic nanoelementswith high resolution soft X-ray microscopy. P. Fischer1,
D. Kim1, B.L. Mesler1 and E.H. Anderson11. CXRO, LBNL,
Berkeley, CA, USA
3:36

FH-09. Time-resolved imaging of the out-of-plane vortex core.
H. Stoll1, K.W. Chou1, A. Puzic1, D. Dolgos1, G. Schuetz1, B. Van
Waeyenberge2, T. Tyliszczak3, I. Neudecker4, G. Woltersdorf4,
D. Weiss4 and C.H. Back41. Max Planck Institute for Metals
Research, Stuttgart, Germany; 2. Department Subatomic andRadiation Physics, Ghent University, Ghent, Belgium; 3.
Advanced Light Source, LBNL, Berkeley, CA, USA; 4.
Department of Physics, Regensburg University, Regensburg,
Germany
3:48

181

4:24

FH-13. Visualization of Magnetization Processes of Soft Magnetic
Composites by Magneto-optical Imaging Technique. Z.W. Lin1,
J.G. Zhu1, J.J. Zhong1, T.H. Johansen2, X.L. Wang3 and W.Y. Yu41.
Faculty of Engineering, University of Technology, Sydney, Sydney,
NSW, Australia; 2. Department of Physics, University of Oslo,
Oslo, Norway; 3. Spintronic and Electronic Materials Group,
Institute for Superconducting and Electronic Materials,
University of Wollongong, Wollongong, NSW, Australia; 4.
Baosteel Group Shanghai Iron and Steel Research Institute,
Shanghai, China
4:36

FH-14. High temperature scanning Hall probe microscopy (HTSHPM) using AlGaN/GaN 2DEG micro-Hall probes.
Z. Primadani1, H. Oosawa1 and A. Sandhu2,11. Department ofElectrical and Electronic Engineering, Tokyo Institute ofTechnology, Meguro, Tokyo, Japan; 2. Quantum Nanoelectronics
Research Center, Tokyo Institute of Technology, Meguro, Tokyo,
Japan

WEDNESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session FP
FH-10. Suppression of vortex core motion in permalloy disks bymeans of focussed ion beams. K. Kuepper1, L. Bischoff1,
J. Fassbender1, K. Chou2, B. Van Waeyenberge3, H. Stoll2,
G. Schütz2, T. Tyliszczak4, I. Neudecker5 and C.H. Back51. Ion
Beam Physics and Materials Research, FZ Rossendorf e. V.,
Dresden, Germany; 2. Max-Planck-Institut für Metallforschung,
Stuttgart, Germany; 3. Department of Subatomic and Radiation
Physics, Ghent University, Gent, Belgium; 4. Advanced Light
Source, LBNL, Berkeley, CA, USA; 5. Experimentelle Physik,
Universität Regensburg, Regensburg, Germany
4:00

FH-11. Direct Observation of the Propagation of Spin-Wave Packets
in Ferromagnetic Thin Films. K. Perzlmaier1, G. Woltersdorf1
and C.H. Back11. Institut fuer Experimentelle und Angewandte
Physik, University of Regensburg, Regensburg, Germany

SPIN DYNAMICS AND RELAXATION II(POSTER SESSION)
Pavel Kabos, Session Chair
FP-01. Thickness dependence of ultrafast magnetization dynamics in
Nickel films. S. Wang1, A. Barman1,3, J. Maas2, A.R. Hawkins2 and
H. Schmidt11. School of Engineering, UC Santa Cruz, Santa Cruz,
CA, USA; 2. ECEn, Brigham Young University, Provo, UT, USA;
3. USC NanoCenter and Department of Physics and Astronomy,
University of South Carolina, Columbia, SC, USA
FP-02. Ultrafast optically induced spin dynamics in patterned singlecrystal Fe dot arrays. L.G. Serban1,2, W. Jing2, B. Chris2,
Z. Xiao2, N. Daxin1, X. Yongbing1, K. Natalia2, N. Ulrich2 and
C. Roy21. Electronics, University of York, York, United Kingdom;
2. Physics, University of York, York, United Kingdom

182

PROGRAM

FP-03. FMR study of thickness-dependent magnetization precessionin Ni80Fe20 films. Y. Chen1, D. Hung2, Y. Yao3, S. Lee3, H. Ji1 andC. Yu31. Department of Physics, National Cheng Kung University,
Tainan, Taiwan; 2. Research Center for Applied Sciences,
Academia Sinica, Taipei, Taiwan; 3. Institute of Physics, Academia
Sinica, Taipei, Taiwan

FP-04. Decoherence processes of a quantum two-level system coupled
to a fermionic environment. N. Yamada1, H. Tsuchiura1 and
A. Sakuma11. Department of Applied Physics, Tohoku University,
Sendai, Japan

FP-05. Triggering the symmetry break including the Oersted Field in
the Magnetization Dynamics of Spin-Transfer Oscillators.
G. Consolo1, B. Azzerboni1, G. Finocchio1, L. Lopez-Diaz2 andL. Torres21. Fisica della Materia e Tecnologie Fisiche Avanzate,
University of Messina, Italy, Messina, Italy; 2. Fisica Aplicada,
University of Salamanca, Salamanca, Spain

FP-06. FMR study of the out-of-plane angular dependence of spinwave spectra in circular magnetic dots. G. Kakazei1,2,
E. Tartakovskaya1, T. Mewes3, P. Wigen2, V. Golub1, S. Batra4 and
C. Hammel21. Institute of Magnetism NAS of Ukraine, Kiev,
Ukraine; 2. Department of Physics, Ohio State University,
Columbus, OH, USA; 3. MINT/Department of Physics andAstronomy, University of Alabama, Tuscaloosa, AL, USA; 4.
Seagate Research, Pittsburgh, PA, USA

FP-07. Thermally activated magnetization reversal behavior ofuniaxial ferromagnetic thin films in the μs ∼ s time regime.
K. Ryu1, K. Lee1, S. Choe2 and S. Shin11. Department of Physics
and Center for Nanospinics of Spintronic Materials, Korea
Advanced Institute of Science and Technology, Daejon, South
Korea; 2. Department of Physics, Seoul National University,
Seoul, South Korea

FP-08. NMR and Spin Relaxation in Systems with Magnetic
Nanoparticles. N. Noginova1, T. Weaver1, M. King1 and
A.B. Bourlinos21. NSU, Norfolk, VA, USA; 2. NCSR Demoktitos,
Athens, Greece

FP-09. Nonlinear phenomenological model of magnetic dissipation forlarge precession angles. A. Slavin1 and V. Tiberkevich11. Physics,
Oakland University, Rochester, MI, USA

FP-10. Spin-wave dynamics and inelastic neutron scattering inferromagnetic nanowires and nanoparticles.
E.V. Tartakovskaya11. Institute for Magnetism, Kiev, Ukraine

FP-11. Theory of spin modes in the vortex state. R. Zivieri1 andF. Nizzoli11. Department of Physics, University of Ferrara,
Ferrara, Italy

PROGRAMWEDNESDAY
AFTERNOON
1:00

183

GRAND BALLROOM

Session FQ

AMORPHOUS AND NANOCRYSTALLINE
SOFT MATERIALS I(POSTER SESSION)
Akihiro Makino, Session Chair
FQ-01. Field crystallization effect on magnetic properties andstability of nanocrystalline Fe56Co24Nb4B13Si2Cu1 alloy.
V. Keylin1, J. Long1, M.E. McHenry1, J.F. Huth2 andE.V. Conley21. Materials Science and Engineering, Carnegie
Mellon University, Pittsburgh, PA, USA; 2. Magnetics, Division of
Spang, Pittsburgh, PA, USA

FQ-02. Magnetic properties of toroidal cores prepared by continuous
Joule heating under tensile stress. T. Yanai1, K. Takagi1,
A. Shimada1, K. Takahashi1, M. Nakano1, Y. Yoshizawa2 andH. Fukunaga11. Electrical and Electronic Engineering, Nagasaki
University, Nagasaki, Japan; 2. Advanced Electronics ResearchLaboratory, Hitachi Metals Ltd., Kumagaya, Japan

FQ-03. Ion irradiation of exchange bias for a Co-based amorphousribbon. D. Park1, C. Kim2, J. Lee1, W. Kim1 and J. Hong11.
NMTD, KAERI, Taejeon, South Korea; 2. Department ofMaterials Engineering, Chungnam National University, Daejeon,
Korea, South Korea

FQ-04. Magnetic Properties of Co-Fe-B-Si-Nb Bulk Glassy Alloy with
Zero Magnetostriction. K. Amiya1, A. Urata1, N. Nishiyama1 andA. Inoue21. R&D Institute of Metals and Composites for Future
Industries, Sendai, Japan; 2. Institute for Materials Research,
Tohoku University, Sendai, Japan

FQ-05. X-ray diffraction analysis and magnetic study on amorphous
Fe15Co17Ni58B10 nanowires, obtained by electrochemical
deposition. M. Vieyra1, T. Meydan1 and F. Borza11. Wolfson
Centre for Magnetics, Cardiff University, Cardiff, South
Glamorgan, United Kingdom

FQ-06. Fe-based amorphous powder with high magnetic flux density
produced by Spinning Water Atomization Process (SWAP).
I. Otsuka1, K. Wada1, Y. Maeta1, A. Watanabe1, H. Izaki1 andM. Yagi21. Epson Atmix Corporation, Aomori-ken, Japan; 2. Sojo
University, Kumamoto-ken, Japan

FQ-07. Processing, Microstructure and Properties of Crystalline
FeCoB Thin Films. H.I. Imrane1, Z. Cai2, K. Ziemer2, S. Yoon1,
V. Harris1, C. Vittoria1 and N. Sun11. Electrical and Computer
Engineering, Northeastern University, Boston, MA, USA; 2.
Chemical Engineering, Northeastern University, Boston, MA,
USA

184

PROGRAMPROGRAM

FQ-08. Effect of Co addition upon microstructural evolution andmagnetic properties of amorphous ferromagnetic CoFeSiB
alloy films. B. Chun1, Y. Kim1, Y. Kim1, J. Hwang2, S. Kim2,
J. Rhee2, J. Suk3 and T. Kim41. Materials Science andEngineering, Korea University, Seoul, South Korea; 2. Physics,
Sookmyung Women’s University, Seoul, South Korea; 3. Nano
Science and Technology, University of Seoul, Seoul, South Korea;
4. Samsung Advanced Institute of Technology, Suwon, South
Korea

FR-06. High room-temperature tunneling magnetoresistance of“bulrush-like” double perovskite. W. Zhong1, N. Tang1, C. Au2
and Y. Du11. National Laboratory of Solid State Microstructures,
Nanjing University, Nanjing, Jiangsu, China; 2. Chemistry
Department, Center for Surface Analysis and Research, Hong
Kong Baptist University, Hong Kong, Hong Kong

FQ-09. Superior magnetic properties of high resistive CoFeHfO films.
D. Nguyen2, C. Kim2, C. Kim2, M. Takahashi3, M. Phan1 andH. Peng11. Department of Aerospace Engineering, University ofBristol, Bristol BS8 1TR, United Kingdom; 2. Research Center for
Advanced Magnetic Materials, Chungnam National University,
Daejeon 305-764, South Korea; 3. Department of ElectricalEngineering, Tohoku University, Sendai 980-8579, JapanWEDNESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session FR

MAGNETORESISTIVE OXIDES(POSTER SESSION)
Jinke Tang, Session Co-chair
Valentin Alek Dediu, Session Co-chair
FR-01. Charge-Orbital Ordering Phase Transitions in Self-Doped
La(1-y)NdyMnO(3+δ). F.N. Bukhanko1, V.P. Dyakonov1 and
V.I. Kamenev11. Electronic properties of metals, Donetsk
Phys.&Techn.Institue, NASU, Donetsk, Donetsk, Ukraine
FR-02. Study of Magneto-Refractive Measurements on
La0.7Pb0.3MnO3 Epitaxial Thin Films. W. Gorman1,
M.S. Kim1 and J. Wang11. Physics Department, State University of
New York Binghamton, Binghamton, NY, USA
FR-03. Magnetotransport properties of Ba2MnRuO6 andLaBaMnRuO6 S. Savitha Pillai1,2 and P.N. Santhosh1,21. X-ray
Laboratory,Department of Physics, Indian Institute ofTechnology.Madras, Chennai, Tamilnadu, India; 2. Low
Temperature Laboratory,Department of Physic, Indian Institute ofTechnology.Madras, Chennai, Tamilnadu, India
FR-04. Anisotropy of magnetoresistance in epitaxial Fe3O4(110) films
grown on MgO (110) substrates. R.S. Sofin1, S.K. Arora1 and
I.V. Shvets11. Centre for Research on Adaptive Nanostructures
and Nanodevices (CRANN),School of physics, Trinity College,
Dublin, Dublin, Ireland
FR-05. Magnetic properties and the transport tuning of
Cr2O3/(La,Sr)MnO3 hetero interface. T. Yokota1,
T. Kuribayashi1, K. Hattori1, T. Shundo1 and M. Gomi11.
Environmental and Materials Engineering, Nagoya Institute ofTechnology, Nagoya, Aichi, Japan185

FR-07. Voltage-current hysteretic characteristics in
ME/Nd0.7Ca0.3MnO3 thin films with ME = Au, Pt, Ag, Cu.
D. Hsu1,3, J. Lin1,2 and W. Wu31. Center for Condensed Matter
Sciences, National Taiwan University, Taipei, Taiwan; 2. Center
for Nanostorage Research, National Taiwan University, Taipei,
Taiwan; 3. Department of Mechanical Engineering, National
Taiwan University, Taipei, Taiwan
FR-08. Comparison of La0.7Ca0.3MnO3 manganite bulk andnanometer-sized crystals’ magnetic properties. E. Rozenberg1,
M. Tzindlekht2, I. Felner2, E. Sominski3, A. Gedanken3 andY.M. Mukovskii41. Dept. of Physics, BGU of the Negev, BeerSheva, -, Israel; 2. The Racah Institute of Physics, The Hebrew
University, Jerusalem, Israel; 3. Chemistry, Bar-Ilan University,
Ramat-Gan, Israel; 4. Moscow Steel and Alloys Institute, Moscow,
Russian Federation
FR-09. Synchrotron radiation spectroscopy study of valence statesand electronic structures of transition-metal ions in Fe11,2
1
1
xCuxCr2S4 spinel sulfides. J. Kang , S.S. Lee , G. Kim ,
2
3
3
4
4
S.W. Han , S.J. Kim , C.S. Kim , J.Y. Kim , H.J. Shin and
B.I. Min51. Physics, The Catholic University of Korea, Bucheon,
South Korea; 2. CSCMR, Seoul National University, Seoul, South
Korea; 3. Physics, Kookmin University, Seoul, South Korea; 4.
Pohang Accelerator Laboratory, Pohang, South Korea; 5. Physics,
POSTECH, Pohang, South Korea
FR-10. Spin-Polarised Transport and Evidence for Novel Spin Valve
Behaviour in YBa2Cu3O7-δ/ La2/3Sr1/3MnO3/YBa2Cu3O7-δ
Hybrid Structures. G.A. Alvarez1, X. Wang1 and S. Dou11.
Institute for Superconducting and Electronic Materials, Universityof Wollongong, Wollongong, NSW, Australia
FR-11. Phase separation study on La0.67Ca0.33CoO3 based granularsystem. B. Fan1, Q. Li1, C. Wu1, S. Wei2 and F. Xu21. Departmentof Physics, Southeast University, Nanjing, China; 2. National SR
laboratory, University of Sci & Tech of China, Hefei, Anhui, China
FR-12. Contactless measurement of temperature dependent colossal
magnetoresistance using the magnetorefractive effect.
P.R. Abernethy1, A.J. Vick1, S.M. Thompson1, J.A. Matthew1 andP.J. Wright11. Physics, University of York, York, United Kingdom;
2. Micro Nanotechnology Labs, QinetiQ, Malvern, United
Kingdom
FR-13. Effects of oxygen deficiency on the magnetic orderings of Mn
and Tb in Tb0.9Na0.1MnO2.9. C. Yang1, W. Li2, T. Chan3,
R. Liu3 and M. Avdeev41. Institute of Physics, Academia Sinica,
Taipei, Taiwan; 2. Department of Physics, National Central
University, Chung-Li, Taiwan; 3. Department of Chemistry andCenter for Nano Storage Research, National Taiwan University,
Taipei, Taiwan; 4. The Bragg Institute, Australian Nuclear Scienceand Technology Organization, Lucas Heights, NSW, Australia

186

PROGRAMPROGRAM

FR-14. Transport Properties of Epitaxial La0.9Hf0.1MnO3 Thin Films.
L. Wang1 and J. Gao11. Physics Department, The University ofHong Kong, Hong Kong, China

FS-02. Detection of Magnetic Nanoparticles and Red Blood Cell byUsing a Highly Sensitive Spin Valve Bio-sensor. S. Park1,
K. Soh1, M. Ahn2, D. Hwang2 and S. Lee21. School of Physics,
Seoul National Univ., Seoul, South Korea; 2. Oriental and Western
Medical Engineering, Sangji University, Wonju, South Korea

FR-15. Phase diagram and magnetic properties of the electron doped
manganite La1-xSnxMnO3 T. Cheng1, C. Hsieh1, J. Lin2, J. Lee3,
J. Chen3, K. Wu1, Z. Wen1, Y. Guo4 and J. Juang1,41. Department
of Electrophysics, National Chiao Tung University, Hsinchu,
Taiwan; 2. Institute of Physics, National Chiao Tung University,
Hsinchu, Taiwan; 3. National Synchrotron Radiation ResearchCenter, Hsinchu, Taiwan; 4. Department of Physics, National
Taiwan Normal University, Taipei, Taiwan
FR-16. Oxygen content and magnetic properties of SrRuO3-δ thinfilms. J. Sakai1, N. Ito2, S. Ito3, K. Takahashi3 and H. Funakubo31.
School of Materials Science, Japan Advanced Institute of Scienceand Technology, Ishikawa, Japan; 2. Center for Nano Materials
and Technology, Japan Advanced Institute of Science andTechnology, Ishikawa, Japan; 3. Department of Innovative andEngineered Materials, Tokyo Institute of Technology, Yokohama,Japan
FR-17. Epitaxial growth and magnetic response of La0.9Ba0.1MnO3/Si
heterojunctions. F. Hu1 and J. Gao11. Department of Physics, The
University of Hong Kong, Hong Kong, Hong Kong, China
FR-18. The response of transport properties to static electric field in
La0.7Ce0.3 MnO3 epitaxial thin films. J. Gao1 and F. Hu11.
Department of Physics, The University of Hong Kong, Hong
Kong, Hong Kong, China
FR-19. Inter comparison of the magneto transport ofLa2/3Ca1/3MnO3: Ag/In polycrystalline composites.
R. Tripaathi1, V.P. Awana1, S. Balamurugan2, H. Kishan1 andE. Takayama-Muromachi21. Superconductivity and Cryogenics,
NPL, New Delhi, India; 2. SMC, NIMS, Tsukuba, JapanWEDNESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session FS

BIOMEDICAL APPLICATIONS OF MAGNETIC
MATERIALS(POSTER SESSION)
Mike Miller, Session Chair
FS-01. Hybridisation of electrodeposited magnetic multilayer
micropillars. J.J. Palfreyman1, F. van Belle1, T. Mitrelias1,
W. Lew1, A. Bland1, M. Lopalco2 and M. Bradley21. Departmentof Physics, Cambridge University, Cambridge, United Kingdom;
2. School of Chemistry, University of Edinburgh, Edinburgh,
United Kingdom

187

FS-03. Using ferromagnetic beads and magnetic devices for detectionof antibodies. Z. Jiang1, J. Palfreyman1, J. Llandro1, T. Mitrelias1
and J. Bland11. Department of Physics, University of Cambridge,
Cambridge, Cambridgeshire, United Kingdom

FS-04. Comparison of micrometer sized and nanosized magnetic
particles for cell labeling. J. Hsiao1,2, M. Tai3, C. Yang1,2,
S. Chen4, J. Wang1 and H. Liu21. Institute of Biomedical
Engineering, National Taiwan University, Taipei, Taiwan; 2.
Department of Medical Imaging, National Taiwan University
Hospital and College of Medicine, Taipei, Taiwan; 3. Departmentof Science Education, Taipei Municipal University of Education,
Taipei, Taiwan; 4. Musculoskeletal Disease Center, J.L. Pettis VA
Medical Center; Department of Biochemistry Loma Linda
University, Loma Linda, CA, USA

FS-05. Magnetic beads with high saturation magnetization.
Y. Kaneko1, T. Nakabayashi1, H. Tokoro1 and S. Fujii11. Advanced
Electronics Research Laboratory, Hitachi Metals Ltd., Kumagaya,
Japan

FS-06. Magnetic gas sensing using Sn0.95Fe0.05O2: A novel applicationof magnetic semiconductor nanoparticles. K. Reddy1, J. Hays1,
A. Thurber1 and A. Punnoose11. Physics Department, Boise State
University, Boise, ID, USA

FS-07. High Spatial Resolutional Measurements of Biomagnetic
Field. K. Iramina1 and S. Ueno21. Department of Inteligent
Systems, Graduate School of Information Science and ElectricalEngineering, Kyushu University, Fukuoka, Fukuoka, Japan; 2.
Graduate School of Engineering, Kyushu University, Fukuoka,
Japan

FS-08. Factors Influencing the Demagnetization Process Applied to aComplex Ferromagnetic Structure. F. Thiel1, A. Schnabel1,
S. Knappe-Grüneberg1, D. Stollfuss1 and M. Burghoff11. AG 8.2
Biosignals, Physikalisch-Technische-Bundesanstalt, Berlin,
Germany

FS-09. Synthesis of LDH-type clay substituted with Fe, Ni, and Co ion
for arsenic removal and its application to magnetic separation.
H. Murase1 and A. Nakahira11. Osaka Pref Univ, Osaka, Japan

FS-10. AC-susceptibility of a ferrofluid: Langevin dynamics
simulations. D.V. Berkov1, N.L. Gorn1 and D. Stock11. Magnetic
and Optical Systems, Innovent Technology Development, Jena,
Germany

188

PROGRAMPROGRAM

FS-11. Miniaturization of Micro Implantable Devices withthermosensitive ferrite for Soft-Heating Hyperthermia.
T. Takura1, T. Maruyama1, F. Sato1, H. Matsuki1, S. Aiba2 and
T. Sato31. Dept. of Electrical and Communication Engineering,
Graduate School of Engineering, Tohoku University, Sendai,
Miyagi, Japan; 2. Medical Sciences, Graduate School of Tohoku
University, Sendai, Miyagi, Japan; 3. NEC TOKIN Corp., Sendai,
Miyagi, Japan

FT-04. FMR study of Ga0.95Mn0.05As thin films with variable holeconcentrations. H.J. von Bardeleben1, K. Khazen1, J.L. Cantin1,
L. Thevenard2 and A. Lemaitre21. INSP, University Paris 6, Paris,
France; 2. LPN, CNRS, Marcoussis, France

FS-12. Effect of intense magnetic fields on hydrogen-bonded networks
in water molecules. M. Iwasaka11. Faculty of Engineering, Chiba
University, Chiba, Japan

FS-13. Field Induced Concentration of Magnetic Nanoparticles on
Magnetically Patterned Substrates: Empirical and Theoreticalstudies. R. Erb1 and B.B. Yellen11. Mechanical Engineering andMaterial Science, Duke University, Durham, NC, USA

FS-14. Magnetic Tracking System for Monitoring Mechanical Heart
Valve Prostheses. J. Baldoni1 and B. Yellen11. MechanicalEngineering and Materials Science, Duke University, Durham,
NC, USAWEDNESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session FTMAGNETIC SEMICONDUCTORS(POSTER SESSION)
Brian Kirby, Session Chair
FT-01. Collectivization of Electronic Spin Distributions and MagnetoElectronic Properties of Small Atomic Clusters of Ga and In
With As, V and Mn. L.A. Pozhar1, M. Chshiev1 andW.C. Mitchel21. Center for Materials for Information Technology,
University of Alabama, Tuscaloosa, AL, USA; 2. Materials andManufacturing Directorate, Air Force Research Laboratory,
Wright-Patterson Air Force Base, OH, USA

FT-02. Room-Temperature Ferromagnetic Ordering in (Mn, Fe)doped ZnS Nanobelts. W. Shim1, T. Kang2, B. Kim2 and W. Lee11.
Department of Materials Science and Engineering, Yonsei
University, Seoul, South Korea; 2. Department of Chemistry,
KAIST, Daejeon, South Korea

FT-03. Precise investigation of domain pining energy in GaMnAs
using planar Hall effect and magnetoresistance measurement.
D. Shin1, S. Chung1, S. Lee1, X. Liu2 and J.K. Furdyna21. physics,
Korea University, Seoul, South Korea; 2. Physics, University ofNotre Dame, Notre Dame, IN, USA

189

FT-05. Determination of Mn acceptor compensation in MBE-grown
GaMnAs via magnetic circular dichroism (MCD).
R. Chakarvorty1, Y.Y. Zhou1, Y.J. Cho1, X. Liu1, J.K. Furdyna1 and
M. Dobrowolska11. Department of Physics, University of Notre
Dame, Notre Dame, IN, USA
FT-06. Effects of substrate orientation on the magnetic properties of(Ga,Mn)As. J. Huang2,1, W. Lee1, Y. Chen2, B. Huang2, T. Chin2
and C. Kuo31. Materials Science Center, National Tsing Hua
University, Hsinchu, Taiwan; 2. Materials Science andEngineering, National Tsing Hua University, Hsinchu, Taiwan; 3.
Materials Science and Engineering, National Chiao Tung
University, Hsinchu, Taiwan
FT-07. Temperature dependence of magnetization in GaMnAs.
M. Sperl1, J. Sadowski1,2, U. Wurstbauer1, W. Wegscheider1 and
G. Bayreuther11. Institut für Experimentelle und Angewandte
Physik, Universitaet Regensburg, Regensburg, Germany; 2.
Institute of Physics, Polish Academy of Sciences, al Lotników
32/46, Warszawa, Poland
FT-08. Growth and transport studies in M/I/p-SC magnetic tunnel
diodes containing different tunnel barrier materials.
K.C. Agarwal1, H. Saito1, S. Yuasa1 and K. Ando11.
Nanoelectronics Research Institute, National Institute of Advanced
Industrial Science and Technology (AIST), Tsukuba, Ibaraki,
Japan
FT-09. In-plane magnetotransport properties of MnAs epitaxiallygrown on GaAs(001). S. Cho1, H. Choi1 and Y. Park11. CSCMR
and Department of Physics & Astronomy, Seoul National
University, Seoul, South Korea
FT-10. Tunneling magnetoresistance and colossal electro-resistance insemiconductor heterostructure with ferromagnetic MnAs
nanoclusters. N. Pham1, M. Yokoyama1, S. Ohya1 and
M. Tanaka1,21. Department of Electronic Engineering, The
University of Tokyo, Bunkyo, Tokyo, Japan; 2. Japan Science andTechnology Corporation, Kawaguchi, Saitama, Japan
FT-11. Magnetic properties of Ge/MnAs digital heterostructure.
J. Lee1, M. Kim2, J. Song3, Y. Cui3 and J.B. Ketterson31. Divisionof Electrical and Computer Engineering, Ajou University, Suwon,
Gyunggi-do, South Korea; 2. BK21 Physics Research Division,
Seoul National University, Seoul, South Korea; 3. Department of
Physics and Astronomy, Northwestern University, Evanston, IL,
USA
FT-12. Magnetic properties of non-equilibrium Fe-Si thin films grownon Si. J. Zhou1, M. Wong2, M. Liu2, E. Helgren1, M. Islam3,
D. Smith3 and F. Hellman11. Department of Physics, University ofCalifornia, Berkeley, CA, USA; 2. Materials Science andEngineering, UCSD, La Jolla, CA, USA; 3. Center for Solid State
Science, Arizona State University, Tempe, AZ, USA

190

PROGRAMPROGRAM

FT-13. Feasibility of ion implantation in the realization of group-IV
MnxGe1-x diluted magnetic semiconductor. L. Ottaviano1,
M. Passacantando1, A. Verna1, F. D’Orazio1, F. Lucari1, P. Parisse1,
S. Picozzi1, R. Gunnella2, G. Impellizzeri3 and F. Priolo31.
Dipartimento di Fisica, Università dell’Aquila, L’Aquila, Italy; 2.
Dipartimento di Fisica, Università di Camerino, Camerino, Italy;
3. Dipartimento di Fisica e Astronomia, Università di Catania,
Catania, Italy

FU-03. Magneto-electro-dynamical modeling and design of a microspeaker used for mobile phones with considerations ofdiaphragm corrugation and air closures. P. Chao1, J. Huang2and H. Yuan21. Department of Electrical and Control
Engineering, National Chiao Tung University, Hsinchu, Taiwan;
2. Department of Mechanical Engineering, Chung-Yuan Christian
University, Chung-Li, Taiwan

FT-14. Epitaxial growth and properties of ferromagnetic Ge1-xFex thinfilms on Si (001). Y. Shuto1, M. Tanaka1,2 and S. Sugahara31.
Department of Electronic Engineering, The University of Tokyo,
Tokyo, Japan; 2. SORST, Japan Science and Technology Agency,
Kawaguchi, Saitama, Japan; 3. Imaging Science and Engineering
Laboratory, Tokyo Institute of Technology, Yokohama, Kanagawa,Japan

FT-15. Effects of the Ce Concentration and the Carrier
Concentration on the Magnetic Properties of Low
Temperature grown Si:Ce Thin Films. T. Terao1, Y. Nishimura1,
D. Shindo1 and N. Fujimura11. Graduate School of Engineering,Osaka Prefecture University, Sakai, Japan

FT-16. Negative GMR effect in (Zn,Cr)Te/ Cu / Co Spin Valves.
W. Wang1, C. Ni2, T. Moriyama1, Q. Wen3, H. Zhang3 and
J.Q. Xiao11. Physics and Astronomy, University of Delaware,
Newark, DE, USA; 2. Materials Science and Engineering,
University of Delaware, Newark, DE, USA; 3. School of Microelectronic and Solid-electronic, University of Electronic Scienceand Technology of China, Chengdu, China

191

FU-04. Fabrication and Evaluation of a Linear Hybrid Micro Step
Motor. M. Hahn1, M. Bedenbecker1 and H. Gatzen11. Institute forMicrotechnology, Garbsen, Germany

FU-05. Pulse Magnetization Process and PM Rotor Design for MultiMegawatt High-Speed Rotating Electric Machines.
C.M. Stephens1, S. Galioto1, J. Yagielski2, J. VanDam1 andK. Weeber11. General Electric Global Research Center,
Schenectady, NY, USA; 2. GE Energy, Generator Technology,
Schenectady, NY, USA

FU-06. Design of Toroidal Stator, Axial Flux Permanent Magnet
Motor. R.H. Patel1, P.R. Upadhyay1 and J.G. Jamnani11. ElectricalEngineering, Nirma Institute of Technology, Ahmedabad, Gujarat,
India

FU-07. Optimization of the Magnetic Pole Shape of a PM
Synchronous Motor. P. Zheng1, J. Wang1 and B. Xue11. Dept. ofElectrical Engineering, Harbin Institute of Technology, Harbin,
Heilongjiang, China

FU-08. Lumped Modeling of Magnetic Actuator Using the Inverse
Magnetostrictive Effect. D. Sul1, Y. Park1 and H. Park11.
Mechatronics Engineering, Chungnam National University,
Daejeon, South Korea

WEDNESDAY
AFTERNOON
1:00

GRAND BALLROOM
FU-09. Study on magnetic circuit for stress-based magnetic force
control using Iron-Gallium alloy. T. Ueno1 and T. Higuchi11.
University of Tokyo, Tokyo, Japan

Session FU

MOTORS I(POSTER SESSION)
David Arnold, Session Chair
FU-01. Novel Variable Reluctance (VR) Micro Motors: Concept,
Simulation, Fabrication and Test. M. Feldmann1 and
S. Buettgenbach11. Institute for microtechnology, Braunschweig,
Germany

FU-02. Development of a New HDD Spindle Motor with HighStiffness and Damping Coefficients by Utilizing the Stationary
Permanent Magnet. G. Jang1 and C. Lee11. Dept. of MechanicalEngineering, PREM Lab., Hanyang University, Seoul, South
Korea

FU-10. Magnetic Field and Torque Analysis of the Four-Quadrant
Transducer Used for Hybrid Electric Vehicle. P. Zheng1,
R. Liu1, J. Zhao1 and Q. Wu11. Dept. of Electrical Engineering,Harbin Institute of Technology, Harbin, Heilongjiang, China

FU-11. Analysis of the starting torque of a long skewed-rotor
induction motor for pump applications. D.G. Dorrell1,
P.J. Holik1 and C.B. Rasmussen21. Dept of Electronics andElectrical Engineering, University of Glasgow, Glasgow, United
Kingdom; 2. Grundfos Management A/S, Bjerringbro, Denmark

FU-12. Decreasing the Rotor Eddy-Current Losses of a MediumSpeed Solid-Rotor Induction Motor. T. Aho1, J. Nerg1 andJ. Pyrhonen11. Department of Electrical Engineering,
Lappeenranta University of Technology, Lappeenranta, Finland

192

PROGRAMPROGRAM

FU-13. Fault Analysis of a DSPM Motor Drive by Using Transient Cosimulation of Magnetic and Electrical Circuits. W. Zhao1,2,
M. Cheng1, W. Hua1, X. Zhu1,2 and J. Zhang11. Deapt. ofElectrical Engineering, Southeast University, Nanjing, China; 2.
School of Electrical and Information Engineering, Jiangsu
University, Zhenjiang, China

FV-04. Magnetic properties of alloys in the series (Fe1-x
Cox)2P. S. Kumar1, A. Krishnamurthy2 and B.K. Srivastava21.
Department of Physics, ML Sukhadia University, Udaipur, Raj.,
India; 2. Department of Physics, University of Rajasthan, Jaipur,
Raj., India

FU-14. Optimization of Electromagnetic vibrational generator with
voltage conversion. C.R. Saha1, T. O’Donnell1, J. Godsell1,
L. Carlioz1, S. Beeby2 and J. Tudor21. PEI, Tyndall National
Institute, Cork, Ireland; 2. Electronic and Computer Science,
University of Southampton, Southampton, United Kingdom

FU-15. Comparing dynamic hysteresis models for further Finite
Element Analysis. V.G. Mazauric1,4, D. Ladas1,3, P.F. Wendling2
and G.J. Meunier31. Corporate Research and Development,
Schneider Electric, Grenoble, France; 2. Magsoft Corporation,
Ballston Spa, NY, USA; 3. Laboratoire d’Electrotechnique deGrenoble, CNRS, Saint Martin d’Hères, France; 4. Centre de
Mathématiques Appliquées, Ecole des Mines de Paris, SophiaAntipolis, France

WEDNESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session FVITINERANT MAGNETISM(POSTER SESSION)
Johan Van Lierop, Session Chair
FV-01. Effect of pressure on the itinerant ferromagnet CoS2: a firstprinciple study. X. Liu1 and Z. Altounian11. physics department,
McGill University, Montreal, QC, Canada

FV-02. Effect of pressure on the magnetic and magnetocaloric
properties of Er(Co,Si)2 compounds. N.K. Singh1, P. Kumar1,
K.G. Suresh1, A.K. Nigam2, A.A. Coelho3 and S. Gama31.
Physics, I.I.T. Bombay, Mumbai, Maharastra, India; 2. Tata
Institute of Fundamental Research, Mumbai, Maharastra, India;
3. Instituto de Física “Gleb Wataghin,” Universidade Estadual deCampinas-UNICAMP, C.P. 6165, Campinas 13 083 970,, Sao
Paulo, Brazil

FV-03. Strongly Enhanced Thermal Expansion of Low Dimensional
Itinerant Weak Antiferromagnets near the Quantum Critical
Points. R. Konno1, Y. Takahashi2 and H. Nakano21. General
Education, Kinki University Technical College, Kumano-shi, Mie
519-4395, Japan; 2. Graduate School of Science, University ofHyougo, Ako, Hyogo 678-1297, Japan193

FV-05. ISOTOPE EFFECT ON THE METAMAGNETIC
TRANSITIONS IN RFe2(H,D)4.2 COMPOUNDS (R=Y, Tb).
T. Leblond1, V. Paul-Boncour1 and M. Guillot21. LCMTR, CNRS,THIAIS, 94320 Cedex, France; 2. CNRS/MPI, GRENOBLE Cedex
9, France

FV-06. “Powder neutron diffraction evidence for enhanced inter planemagnetic coupling in La1.2Sr1.8Mn2-xRuxO7 layered
manganites” S.S. Manoharan1,2, B. Singh1 and R.K. Sahu2,31.
Chemistry, Indian Institute of Technology Kanpur, Kanpur, India;
2. Center for Superconductivity, University of Maryland,
Maryland, MD, USA; 3. National Metallurgical Laboratoory,
Jamshedpur, Jharkhand, India

FV-07. Ferromagnetism above the Gd Curie Temperature in Gd1001
2
xFex (x = 0 to 10) Nanostructures. D. Schmitter , J. Goertzen ,G. Shelburne1, T.M. Pekarek3, J.E. Shield2, P.M. Shand4,
D. Haskel5 and D.L. Leslie-Pelecky11. Department of Physics andAstronomy and Nebraska Center for Materials and Nanoscience,
University of Nebraska Lincoln, Lincoln, NE, USA; 2. Departmentof Mechanical Engineering and Nebraska Center for Materials
and Nanoscience, University of Nebraska Lincoln, Lincoln, NE,
USA; 3. Department of Chemistry and Physics, University ofNorth Florida, Jacksonville, FL, USA; 4. Department of Physics,
University of Northern Iowa, Cedar Falls, IA, USA; 5. Advanced
Photon Source, Argonne National Lab, Argonne, IL, USA

FV-08. Role of orbital degeneracy in Itinerant Ferromagnetism.
P. Dua1 and I. Singh21. AMITY Centre for Vacuum & Advanced
Technologies, Amity University (U.P.), Noida-201301, Uttar
Pradesh, India; 2. Physics Department, Indian Institute ofTechnology, Roorkee, Roorkee-247667, Uttaranchal, India

FV-09. First-principles studies of spin disorder resistivity of Fe andNi. A.L. Wysocki1, K.D. Belashchenko1, J.P. Velev1 and M. van
Schilfgaarde21. Department of Physics and Astronomy, Universityof Nebraska Lincoln, Lincoln, NE, USA; 2. Department ofChemical and Materials Engineering, Arizona State University,
Tempe, AZ, USA

FV-10. Dynamical spin-susceptibility of itinerant heavy electrons with
nested Fermi surface. P.U. Schlottmann11. Department of
Physics, Florida State University, Tallahassee, FL, USA

FV-11. Enhanced magnetocapacitance in a metal-oxide-metaljunction system. K. Kim1, B. Kim1 and B. Min11. Physics,
POSTECH, Pohang, Kyungbuk, South Korea

194

PROGRAMWEDNESDAY
AFTERNOON
1:00

PROGRAMGRAND BALLROOM

Session FW

PERMANENT MAGNET MOTORS II(POSTER SESSION)
David Howe, Session Chair
FW-01. Performance of a High-Speed Permanent Magnet
Synchronous Generator considering the Min-Max Operating
Speed. H. Cho1, K. Ko1, S. Jang1 and W. Oh21. ElectricalEngineering, Chungnam National University, Daejeon, South
Korea; 2. Kyongju Aerospace Electrical Systems Co.,Ltd.,
Kyongju, South Korea

FW-02. Characteristics Regulation for Manufacture of PermanentMagnet Motors Using Post-Assembly Magnetization.
M. Hsieh1 and Y. Hsu11. Systems and Naval Mechatronic Eng.,National Cheng Kung University, Tainan, Taiwan

FW-03. Investigation on End Winding Inductance in Stators ofPermanent-Magnet Motors. M. Hsieh1, Y. Hsu1 and K. Hu11.
Systems and Naval Mechatronic Eng., National Cheng Kung
University, Tainan, Taiwan

FW-04. An Application of Response Surface Method to Magnet
Optimization of 5 MW BLDC Motor with Design Sensitivity
Analysis. P. Shin1, C. Koh2 and G. Chung11. EelectricalEngineering, Hongik University, Jochiwon, Chungnam, South
Korea; 2. Electrical Engineering, Chugbuk University, Cheongju,
Chungbuk, South Korea

FW-05. The study on the characteristics of pole arc and salient poleratio to improve torque performance of IPMSM. K. Kim1 andJ. Lee11. Dept. of electrical engineering, hanyang university,
seoul, South Korea

FW-06. Design and Analysis of a High-Speed BLDC Motor forCentrifugal Compressor. S. Jang1, H. Cho1 and S. Choi21.
Electrical Engineering, Chungnam National University, Daejeon,South Korea; 2. KIMM, Daejeon, South Korea

FW-07. Analysis on the Rotor Losses in High-Speed Permanent
Magnet Synchronous Motor according to the Cooling
Condition. H. Cho1, J. Choi1, D. You1 and S. Jang11. ElectricalEngineering, Chungnam National University, Daejeon, South
Korea

FW-08. Characteristic Analysis of Permanent Magnet Type Step
Motor with claw poles by using 3 dimensional Finite Element
Method. D. Jung1 and J. Lee11. Hanyang university, Seoul, South
Korea

195

FW-09. Application of Polar Anisotropic Sintered NdFeB Ring-type
Permanent Magnet to Brushless DC Motor. H. Kim1, D. Kim1
and C. Koh21. R&D, Jahwa Electronics, Cheongju, Chungbuk,South Korea; 2. School of ECE, Chungbuk National University,
Cheongju, Chungbuk, South Korea
FW-10. Effect of Radial Magnetic Forces in Permanent Magnet
Motors with Rotor Eccentricity. J. Li1, Z. Liu2 and L. Nay21.
ECE, National University of Singapore, Singapore, Singapore; 2.
Data Storage Institute, Singapore, Singapore
FW-11. A Highly Efficient 200,000 RPM Motor System for Cryogenic
Cooling Applications. L. Zhao2, C. Ham1, L. Zheng3, T. Wu1,
K. Sundaram1, J. Kapat1 and L. Chow11. University of Central
Florida, Orlando, FL, USA; 2. Siemens, Columbia, SC, USA; 3.
Inc, LA, CA, USA
FW-12. A study on the magnetic shield between permanent magnet
motor and sensor for hybrid electric vehicle. K. Kim1 andJ. Lee11. Dept. of electrical engineering, hanyang university,
seoul, South Korea
FW-13. Torque Ripple Reduction of Permanent Magnet Spherical
While Motor. S. Won1 and J. Lee11. Electrical Eng., Hanyang
University, Seoul, South Korea
FW-14. Analysis of the claw pole alternator using a Coupled-Circuit
Model considering 3D Fourier-series and 3D Finite Element
Method. S. Lim1, S. Ham1 and J. Lee11. electrical engineering,
Hanyang University, Seoul, South Korea
FW-15. Magnetic bearing design for a 100kWh flywheel energy
storage system. M.D. Noh1, S. Mo1, S. Yoo1, S. Choi2, J. Lee3 and
Y. Han31. Mechatronics Engineering, Chungnam National
University, Daejeon, South Korea; 2. Korea Institute ofMachinery and Materials, Daejeon, South Korea; 3. Korea
Electric Power Research Institute, Daejeon, South Korea

WEDNESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session FXRECORDING MEDIA AND SYSTEMINTEGRATION(POSTER SESSION)
Bill Higgins, Session Chair
FX-01. Pt content dependence of the switching field distributions of
CoPtCr-SiO2 perpendicular media characterized bysubtracting the effect of thermal agitation. T. Shimatsu1,
T. Kondo1, K. Mitsuzuka1, S. Watanabe2, H. Aoi1, H. Muraoka1
and Y. Nakamura11. RIEC, Tohoku University, Sendai, Japan; 2.
Fuji Electric AT Co., Ltd., Matsumoto, Japan

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PROGRAMPROGRAM

FX-02. Interfacial exchange coupling and magnetization reversal for
Co-SiO2/(Co-Pt)-SiO2 hard/soft-stacked perpendicular media.
T. Shimatsu1, Y. Inaba1, S. Watanabe2, O. Kitakami3, S. Okamoto3,
H. Aoi1, H. Muraoka1 and Y. Nakamura11. RIEC, Tohoku
University, Sendai, Japan; 2. Fuji Electric AT Co., Ltd.,
Matsumoto, Japan; 3. IMRAM, Tohoku University, Sendai, Japan

FX-11. Guideline for selecting materials of nonmagnetic intermediate
layer for granular-type perpendicular recording media.
S. Saito1, A. Hashimoto1, N. Itagaki1 and M. Takahashi11.
Electronic engineering, Tohoku university, Sendai, Miyagi, Japan

FX-03. Magnetic anisotropy of Co-M-Pt (M=Cr, Mo, Ru, W, Re)
perpendicular films epitaxially deposited on various seedlayers materials. H. Sato1, T. Shimatsu1, Y. Okazaki1,
O. Kitakami2, S. Okamoto2, H. Aoi1, H. Muraoka1 andY. Nakamura11. RIEC, Tohoku University, Sendai, Miyagi, Japan;
2. IMRAM, Tohoku University, Sendai, Miyagi, Japan
FX-04. Exchange coupled composite media with the soft layer below
the hard layer for CoCrPt:SiO 2 perpendicular recording
media. J. Shi1, L. Qiu2, S. Piramanayagam1, J. Zhao1, C. Mah1,
C. Ong1, J. Chen1 and J. Ding21. Spintronics, Media and Interface,
Data Storage Institute, singapore, Singapore; 2. Materials Scienceand Engineering, National University of Singapore, Singapore,
Singapore
FX-05. Microstructure analysis of (001) oriented L10 FePt on NiTa
seed layer exposed to O2. T. Seki1, Y.K. Takahashi2, K. Hono2,1,
T. Maeda3 and A. Kikitsu31. Graduate School of Pure and Applied
Sciences, University of Tsukuba, Tsukuba, Japan; 2. National
Institute for Materials Science, Tsukuba, Japan; 3. Corporate RD
Center, Toshiba Corp., Kawasaki, Japan
FX-06. Magnetic behaviors of (FePt-MgO)/Pt(001)/Cr(002) trilayers
as the percolated perpendicular recording medium. A. Sun1,
J. Hsu1, P. Kuo2, Y. Tsai2 and H. Huang11. Department of Physics
and Center for Nanostorage Research, National Taiwan
University, Taipei, Taiwan; 2. Institute of Materials Science andEngineering, National Taiwan University, Taipei, Taiwan
FX-07. Noise reduction of the electroless plated soft magnetic underlayers by annealing in a magnetic field. M. Ito1, Y. Hamaguchi1,
Y. Takai1 and K. Ohashi11. Magnetic Materials Research Center,
Shin-Etsu Chemical Co., Ltd., Echizen, Fukui, Japan
FX-08. A new stacked structure for high density perpendicular
recording media. J. Ariake1, S. Watanabe1 and N. Honda11. Akita
Prefectural R&D Center, Akita, Japan
FX-09. Fabrication of SmCo5 double-layered perpendicular magnetic
recording media. J. Sayama1, Y. Yamashita1, T. Asahi1,2 and
T. Osaka11. Graduate School of Science and Engineering, Waseda
University, Shinjuku, Tokyo, Japan; 2. Consolidated ResearchInstitute for Advanced Science and Medical Care (ASMeW),
Waseda University, Shinjuku, Tokyo, Japan
FX-10. High anisotropy Y-Co films on thin Cu underlayer. Y. Kubota1,
Y. Fu2, X. Wu1 and T. Ambrose11. Seagate Research, Seagate
Technology, LLC, Pittsburgh, PA, USA; 2. Department ofmaterials science and engineering, Vanderbilt University,
Nashville, TN, USA

197

FX-12. Exchange Coupled Soft Under Layer for Perpendicular
Recording. K. Gao1, F. Liu1, C. Mathieu1 and S. Mao11. Seagate
Technology, Bloomington, MN, USA
FX-13. Control of M-H Loop Shape in Perpendicular Recording
Media by Ion Implantation. C. Choi1,2, D. Hong1, A.I. Gapin1,2
and S. Jin1,21. Center for Magnetic Recording Research,
University of California at San Diego, La Jolla, CA, USA; 2.
Material Science & Engineering, University of California at San
Diego, La Jolla, CA, USA
FX-14. Written Transition Curvature Analysis at Ultra-High Linear
Density. S. Li1, C. Rea1, K. Gao1, N. Tebat1 and
M. Montemorra11. RSO, Seagate Technology Inc, Bloomington,
MN, USA
FX-15. PES Generation and Evaluation for High Density
Perpendicular Recording with Microtrack Simulation.
S. Zhang1 and W. Wong11. Mechatronics and Recording Channel
Division, Data Storage Institute, Singapore, Singapore

WEDNESDAY
AFTERNOON
1:00

GRAND BALLROOM

Session FYRECORDING MODELING AND NOISE(POSTER SESSION)
Shaoping Li, Session Chair
FY-01. Recording Simulation of Patterned Media toward 2 Tbit/in2
N. Honda1, K. Yamakawa1 and K. Ouchi1,21. AIT, Akita Prefectural
R & D Center, Akita, Akita, Japan; 2. Faculty of Systems Scienceand Technology, Akita Prefectural University, Yurihonjo, Akita,
Japan
FY-02. An Analytical Solution of Read Sensor Response for
Perpendicular Recording. Z. Liu1, J.T. Li1,2 and K.S. Chai11.
Data Storage Institute, Singapore, Singapore; 2. National
University of Singapore, Singapore, Singapore
FY-03. Multi-level Magnetic Recording System. N. Amos2, R. Ikkawi2,
A. Lavrenov2, R. Chomko1,2, D. Litvinov3 and S. Khizroev1,21.
Electrical Engineering, University of California, Riverside,
Riverside, CA, USA; 2. Center for Nanoscale Magnetic Devices,
Florida International University, Miami, FL, USA; 3. Electricaland Computer Engineering, University of Houston, Houston, TX,
USA

198

PROGRAMPROGRAM

FY-04. Two-dimensional data detection for probe recording on
patterned media. H. Groenland1 and L. Abelmann11. Mesa+
Institute for Microsystems and Nanotechnology, SMI, University ofTwente, EWI, P.O. Box 217, NL-7500 AE Enschede, Netherlands

9:36

FY-05. Micro-track calculation of CPP-type read head with anarbitrary magnetic shield shape. M. Hatatani1, N. Miyamoto1
and Y. Suzuki2,31. Head Advanced Technology, Hitachi Global
Storage Technologies Japan, Odawara-shi, Kanagawa-ken, Japan;
2. RIEC, Tohoku University, Sendai-shi, Miyagi-ken, Japan; 3.
Central Research Laboratory, Hitachi Ltd, Kokubunji, Tokyo,
Japan
FY-06. Optimum Design of Discrete Track Media based on Accurate
Off-Track Noise Profile. H. Tanabe1, J. Ohno1 and
T. Hamaguchi11. Hitachi Global Storage Technologise Japan, Ltd.,
Odawara-shi, Kanagawa-ken, Japan
FY-07. Simulation and Stability Analysis of Current and Transverse
Field Effects on Spin Transfer Noise. L. Wang1, G.C. Han1,
Y.K. Zheng1 and B. Liu11. Data Storage Institute, Singapore,
Singapore
FY-08. Glitch Measurements to Determine Instability Issues in
Magnetoresistive Devices. H. Xi1, B. Xu1, J. Loven1, R. Netzer1,
J.I. Guzman1, S. Franzen1 and S. Mao11. Advanced Transducer
Development, Seagate Technology, Bloomington, MN, USA
FY-09. High-frequency magnetic noise in tunneling magnetoresistive
heads. G. Han1, B. Zong1, S. Tan1, L. Wang1, L. Gonzaga1 and
B. Liu11. Data Storage Institute, Singapore, Singapore
FY-10. Distributions of magnetic resonant frequencies and phases in
TMR heads. J. Masuko1, H. Akimoto1, M. Matsumoto1, H. Kanai1
and Y. Uehara11. Advanced Head Technology, Fujitsu Limited,
Nagano, Japan199

GA-02. Domain Wall Assisted Magnetic Recording. (Invited) A. Dobin1
and H.J. Richter11. Seagate Technology, Fremont, CA, USA
10:12

GA-03. Vortex dynamic interactions and nonlinear excitations inpatterned ferromagnets. (Invited) K. Buchanan1,
M. Grimsditch1, F. Fradin1, P. Roy2, K. Guslienko1, S. Bader1 and
V. Novosad11. Argonne National Laboratory, Argonne, IL, USA;
2. Uppsala University, Uppsala, Sweden
10:48

GA-04. Microscopic Theory of Current-Driven Domain Wall
Dynamics. (Invited) G. Tatara1,2, H. Kohno3 and J. Shibata41.
Department of Physics, Tokyo Metropolitan University, Tokyo,
Japan; 2. PRESTO, JST, Saitama, Japan; 3. Graduate School ofEngineering Science, Osaka University, Osaka, Japan; 4.
Frontier Research System, The Institute of Physical and Chemical
Research (RIKEN), Saitama, Japan
11:24

GA-05. Theory and simulation of current-driven domain wall
dynamics. (Invited) S. Zhang1 and J. He11. Physics, University ofMisssouri-Columbia, Columbia, MO, USA

THURSDAYMORNING
9:00

HARBORSIDE A

Session GB

CPP-TMR & GMR READ HEADS
Satoru Araki, Session Chair
THURSDAYMORNING
9:00

HARBORSIDE C
9:00

Session GA

SYMPOSIUM ON DRIVEN DOMAIN WALL
DYNAMICS IN NANOSTRUCTURES

GB-01. Comparison of Edge Damage in CIP, TMR, and CPP-GMR
Sensors. J. Katine1, J.R. Childress1, M.J. Carey1, S. Maat1 and
D. Mauri21. SJ Research, Hitachi GST, San Jose, CA, USA; 2. Ad
Tech, Hitachi GST, San Jose, CA, USA

Jordan Katine, Session Chair
9:12
9:00

GA-01. Current induced motion of magnetic domain walls along
permalloy nanowires: application to Magnetic Racetrack
storage-memory. (Invited) S. Parkin11. IBM Almaden ResearchCenter, San Jose, CA, USA

GB-02. Study of very narrow track TMR read heads. K. Mackay1,
C. Tsang1, M. Cyrille1, K. Carey1, A. Marley2, S. Kiselev2,
D. Mauri2, J. Moore1, H. Nguyen1, J. Piggott2 and D. Werner21.
San Jose Research Center, Hitachi Global Storage Technologies,
San Jose, CA, USA; 2. H/M Business Unit, Hitachi Global
Storage Technologies, San Jose, CA, USA

200

PROGRAMPROGRAM

9:24

11:12

GB-03. Mag-Noise and Design Concerns of Tunneling
Magnetoresistive Heads. J. Zhu1, N. Kim2 and V.J. Yusz11.
Electrical and Computer Engineering, Carnegie Mellon
University, Pittsburgh, PA, USA; 2. Samsung Electronics, San
Jose, CA, USA
9:36

GB-04. Thermally excited low frequency magnetization switching in
TMR and CPP GMR heads. (Invited) Y. Zhou11. R&D,
Headway Technology, Milpitas, CA, USA
10:12

201

GB-10. Control of Cu confined current paths in CCP-CPP-GMR spin
valves by rapid thermal annealing. S. Gupta1,2, Z.R. Tadisina1,2,
C. Papusoi2,3, H. Fujiwara2,3, J. Zhong1,2 and R.K. Pandey1,21.
Metallurgical and Materials Engineering, The University of
Alabama, Tuscaloosa, AL, USA; 2. MINT, The University of
Alabama, Tuscaloosa, AL, USA; 3. Physics and Astronomy, The
University of Alabama, Tuscaloosa, AL, USA; 4. Electrical andComputer Emgineering, The University of Alabama, Tuscaloosa,
AZ, USATHURSDAYMORNING
9:00

HARBORSIDE B

Session GC
GB-05. Highly sensitive long-height reader with toggle mode.
Y. Zheng1, G. Han1, K. Li1, J. Qiu1, Z. Guo1, P. Luo1, L. An1,
S. Tan1, Z. Liu1, L. Wang1, B. Zong1 and B. Liu11. Spintronics,
Media and Interface Division, Data Storage Institute, Singapore,
Singapore
10:24

GB-06. IS ELECTRICAL 1/F NOISE IN TMR HEADSEQUILIBRIUM NOISE? K.B. Klaassen1 and A.M. Taratorin11.
Recording Physics, Hitachi San Jose Research, San Jose CA, CA,
USA
10:36

GB-07. Spin torque induced noise effect in TMR Head. E. Kim1,
S.C. Lee1 and K. Sunwoo11. Semiconductor Material and Device
Lab., Samsung Advenced Institute of Technology, Yongin,
Kyoungki-Do, South Korea
10:48

GB-08. Study on the relationship between Cu-AlOx NOL morphology
and CCP effect upon CPP-GMR. K. Miyake1, S. Nou1,
S. Kawasaki1, M. Doi1 and M. Sahashi11. Dept. of Electronic
Engineering, Graduate School of Engineering, TOHOKU
University, Sendai, Japan
11:00

GB-09. Annealing effect on crystalline structure of current screen
layer for CPP-GMR. K. Hoshino1, H. Hoshiya1 and Y. Okada11.
Central Research Laboratory, Hitachi, Ltd., Odawara-shi, Japan

NANOPARTICLE ARRAYS II
Valentyn Novosad, Session Chair
9:00

GC-01. Self-assembled magnetic nanoclusters and cluster arrays.
A. Enders1, J. Zhang1, V. Sessi1, D. Repetto1, J. Honolka1 andK. Kern11. Max Planck Institute for Solid State Research,
Stuttgart, Germany
9:12

GC-02. Array Formation and Size Effects in Chemically Synthesized
FePt Nanoparticles. L. Colak1 and G.C. Hadjipanayis11. Physics
and Astronomy, University of Delaware, Newark, DE, USA
9:24

GC-03. Magnetic Properties of Self-organized nanodot Arrays.
C. Kim1, H. Zeng1, S. Greenbaum2, J. Flowers2, Y. Ren2, Z. Li3,
Y. Sui3 and D.J. Sellmyer31. Department of Physics, University at
Buffalo, SUNY, Buffalo, NY, USA; 2. Department of Physics andAstronomy, Hunter College, City University of New York, New
York, NY, USA; 3. Department of Physics and Astronomy and
NCMN, University of Nebraska, Lincoln, NE, USA
9:36

GC-04. MAGNETOTRANSPORT IN MAGNETIC
NANOPARTICLE 3D SUPER-LATTICES. (Invited)
T. Reasmey1, C. Julian1, D. Céline2,3, G. Jérémie1, R. Philippe2,
C. Bruno3 and R. Marc11. Laboratoire de NanophysiqueMagnétisme et Optoélectronique INSA, Toulouse, France; 2.
Freescale Semiconductor, Toulouse, France; 3. Laboratoire deChimie de Coordination, Toulouse, France

202

PROGRAMPROGRAM

10:12

11:24

GC-05. Ferromagnetic Nanotubes by ALD Coatings of Al2O3
Membranes. K. Nielsch1, M. Daub1, M. Knez1, J. Bachmann1 andU. Gösele11. Max Planck Institute of Microstructure Physics,
Halle, Germany

GC-11. Size Distributions of FePtAu Nanoparticles from Small Angle
Neutron Scattering. V.V. Krishnamurthy1, Z. Jia2, D. Reed2,
M. Mandal2, J.W. Harrell2, D.E. Nikles2, G.J. Mankey2 and
L. Porcar31. Materials Science and Technology Division, Oak
Ridge National Laboratory, Oak Ridge, TN, USA; 2. Center for
Materials for Information Technology, The University of Alabama,
Tuscaloosa, AL, USA; 3. NIST Center for Neutron Research,
National Institute of Standards and Technology, Gaithersburg,
MD, USA

10:24

GC-06. Synthesis and magnetic properties of self-organized FeRhnanoparticles. Y.Y.K. Hnin1 and T. Suzuki11. Toyota
Technological Institute, Nagoya, Japan

203

11:36
10:36

GC-07. Microstructures and magnetic alignment of L10 FePt
nanoparticles. S. Kang1, S. Shi1, Z. Jia1, G.B. Thompson1,
D.E. Nikles1, J.W. Harrell1, D. Li2, N. Poudyal2 and J.P. Liu21.
MINT Center, The University of Alabama, Tuscaloosa, AL, USA;
2. Physics Department, University of Texas at Arlington,
Arlington, TX, USA

GC-12. Anisotropy of precessional dynamics in nanoscale magnetic
elements. V.V. Kruglyak1, P.S. Keatley1, R.J. Hicken1,
J.R. Childress2 and J.A. Katine21. School of Physics, University of
Exeter, Exeter, United Kingdom; 2. San Jose Research Center,
Hitachi Global Storage Technologies, San Jose, CA, USA

11:48

10:48

GC-08. Angular Dependence of the Magnetostatic Interaction in
Arrays of Magnetic Nanostructures. M.A. Bolte1, H. Ziehlke1,
R. Eiselt1, G. Meier1, D. Kim2 and P.J. Fischer21. Institute ofApplied Physics and Center for Microstructure Research,
University of Hamburg, Hamburg, Germany; 2. Center for X-ray
Optics, LBL, Berkeley, CA, USA

GC-13. In-plane reversible and irreversible magnetization reversal of
ferromagnetic soft nanowire arrays. F. Béron1, L. Clime2,
M. Ciureanu1, D. Ménard1, R.W. Cochrane3 and A. Yelon11.
Engineering Physics, École Polytechnique de Montréal,
Montréal, QC, Canada; 2. NRC - Industrial Material Institute,
Boucherville, QC, Canada; 3. Physics, Université de Montréal,
Montréal, QC, Canada

11:00

GC-09. Study of demagnetization protocols for frustrated interacting
nanomagnet arrays. R.F. Wang1, J. Li1, W. McMconville1,
C. Nisoli1, P. Lammert1, V.H. Crespi1 and P. Schiffer11. physics
and materials research institute, penn state univ, University Park,
PA, USATHURSDAYMORNING
9:00

HARBORSIDE D

Session GD

HALF-METALLIC FERROMAGNETS II
11:12

GC-10. Size and material dependence of in-plane and out-of-planemagnetic configurations in nanodots. I.V. Roshchin1, C. Li1,
X. Batlle2, R.K. Dumas3, K. Liu3, J. Mejia Lopez4, D. Altbir5,
A.H. Romero6 and I.K. Schuller11. Physics Department,
University of California - San Diego, La Jolla, CA, USA; 2. Dept.
de Física Fonamental, U. Barcelona, Barcelona, Catalonia,
Spain; 3. Physics Dept., UC Davis, Davis, CA, USA; 4. Facultadde Física, Pontificia U. Católica de Chile, Santiago, Chile; 5.
Dept. de Física, U. de Santiago, Santiago, Chile; 6. CINVESTAV,U. Querètaro, Querètaro, Mexico

Chris Leighton, Session Chair
9:00

GD-01. Experimental evidence of the depth dependence of the spinpolarization in Co2MnGe thin film Heusler alloys. V. Baltz1,
A. Hindmarch1, A. Naylor1, A. Walton1, C. Allen1, B. Hickey1,
K. Westerholt2 and H. Zabel21. Condensed matter group,
University of Leeds, Leeds, United Kingdom; 2. Department of
Physics, Ruhr-University Bochum, Bochum, Germany

204

PROGRAMPROGRAM

205

9:12

10:48

GD-02. Oscillatory Interlayer Coupling in Epitaxial
Co2MnSi/Cr/Co2MnSi Trilayers. H. Wang1, A. Sato1,
K. Yakushiji2, K. Saito1, S. Mitani1 and K. Takanashi11. Institutefor Materials Research, Tohoku University, 2-1-1 Katahira, Aobaku, Sendai 980-8577, Japan; 2. Nanoelectronics ResearchInstitute(NeRI), National Institute of Andvanced Industrial
Sciences and Technology (AIST), 1-1-1 Umezono, Tsukuba 3058568, Japan

GD-08. Electronic and magnetic structure of CrO2-RuO2 interfaces.
K.B. Chetry1,4, H. Sims2, W.H. Butler1,4 and A. Gupta3,41. Physics
and Astronomy, University of Alabama, Tuscaloosa, AL, USA; 2.
Physics, Tulane University, New Orleans, LA, USA; 3. Chemistry
and Chemical Engineering, University of Alabama, Tuscaloosa,
AL, USA; 4. Center for Materials for Information Technology,
University of Alabama, Tuscaloosa, AL, USA
11:00

9:24

GD-03. Theoretical Modeling of Half-metallic CPP Spin Valves.
S. Tan1, M. Jalil2, S. Kumar1,2, K. Li1, Y. Zheng1 and G. Han11.
Data Storage Institute, Singapore, Singapore; 2. ISML, ECE,
National University of Singapore, Singapore, Singapore

GD-09. Magneto-transport in single crystal Fe3O4/MgO/Co magnetic
tunnel junctions. F. Greullet1, E. Snoeck2, C.V. Tiusan1,
F. Montaigne1, G. Lengaigne1, L. Calmels2, B. Warot2 and
M. Hehn11. Nancy University, CNRS, Institut de Physique desMateriaux, Vandoeuvre les Nancy, Lorraine, France; 2. CEMES,
Toulouse, France

9:36

11:12

GD-04. Properties of quaternary half metal-type Heusler compounds
Co2Mn1-xFexSi: Tuning the Fermi energy. (Invited) C. Felser1,
B. Balke1 and K. Kobayashi21. Institute of Inorganic Chemistry,
University of Mainz, Mainz, Germany; 2. Japan Synchrotron
Radiation Research Institute (SPring-8/JASRI),, Hyogo, Japan

GD-10. Dependence of magnetoresistance characteristics of magnetic
tunnel junctions with a Heusler alloy thin film of either
Co2MnGe or Co2MnSi on film composition. S. Hakamata1,
T. Ishikawa1, T. Marukame1, K. Matsuda1, T. Uemura1, M. Arita1
and M. Yamamoto11. Division of Electronics for Informatics,
Hokkaido University, Sapporo, Japan

10:12
11:24
GD-05. Structural and magneto-transport characterization of
Co2Cr0.6Fe0.4Al Heusler alloy films. D. Rata1, H. Braak1,
D.E. Bürgler1, S. Cramm1 and C.M. Schneider11. Institut für
Festkörperforschung, Forschungszentrum Jülich GmbH, D-52425
Jülich, Germany

10:24

GD-06. Spinpolarization of Ni2MnIn and Ni80Fe20 determined bypoint-contact Andreev spectroscopy. L. Bocklage1,
J.M. Scholtyssek1, U. Merkt1 and G. Meier11. University of
Hamburg, Hamburg, Hamburg, Germany

GD-11. Growth and Characterization of CuCr2Se4 Thin Films.
J. Bettinger1, R.V. Chopdekar1,2, M. Liberati3,4, J.R. Neulinger5,
Y. Takamura1, L.M. Alldredge1,2, E. Arenholz4, M. Chshiev6,
W.H. Butler6,7, Y.U. Idzerda3, A.M. Stacy5 and Y. Suzuki11.
Materials Science and Engineering, UC Berkeley, Berkeley, CA,
USA; 2. Applied Physics, Cornell University, Ithaca, NY, USA; 3.
Physics, Montana State University, Bozeman, MT, USA; 4.
Advanced Light Source, Lawrence Berkeley National Laboratory,
Berkeley, CA, USA; 5. Chemistry, UC Berkeley, Berkeley, CA,
USA; 6. MINT Center, University of Alabama, Tuscaloosa, AL,
USA; 7. Physics and Astronomy, University of Alabama,
Tuscaloosa, AL, USA
11:36

10:36

GD-07. High spin polarization in a two phase quaternary Heusler
alloy Co2MnAl1-xSnx. A. Rajanikanth1,2, Y.K. Takahashi2 andK. Hono2,11. Graduate School of Pure and Applied Sciences,
University of Tsukuba, Tsukuba 305-0047, Ibaraki, Japan; 2.
Magentic Materials Center, National Insitute for Materials
Scinece (NIMS), Tsukuba 305-0047, Ibaraki, Japan

GD-12. Element Specific Investigation of Ultra-Thin Co2MnGa/GaAs
Heterostructures. J.S. Claydon1, S. Hassan1, C.D. Damsgaard2,
J. Bindslev Hansen3, Y.B. Xu1 and G. van der Laan41. Electronics
Department, University of York, York, United Kingdom; 2.
Department of Micro and Nanotechnology, Technical Universityof Denmark, Lyngby, Denmark; 3. Department of Physics,
Technical University of Denmark, Lyngby, Denmark; 4.
Daresbury Laboratory, Warrington, United Kingdom

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PROGRAMPROGRAM

11:48

10:00

GD-13. Influence of hot pressure on the low field magnetoresistanceof CrO2. X. Wang1, Y. Sui1, X. Songf1, R. Zhu1, Z. Qian1 andW. Su11. Physics, Harbin Institute of Technology, Harbin,
Heilongjiang, China

GE-06. Analysis of Coercivity and Magnetoresistance in Arrays ofConnected Nano-Rings. G. Bordignon1,2, T. Fischbacher2,
M. Franchin1,2, J.P. Zimmermann2, A.A. Zhukov1, P.J. de Groot1
and H. Fangohr21. School of Physics and Astronomy, University ofSouthampton, Southampton, United Kingdom; 2. School ofEngineering Sciences, University of Southampton, Southampton,
United Kingdom

THURSDAYMORNING
9:00

207

HARBORSIDE E
10:12

Session GE

MICROMAGNETICS: APPLICATIONS II

GE-07. Magnetic Configurations and Phase Diagrams of sub-100 nm
NiFe Nanorings. N. Benatmane1, W. Scholz1 and T.W. Clinton11.
Research, Seagate, Pittsburgh, PA, USA

Kaizhong Gao, Session Chair
10:24
9:00

GE-01. Reducing spin-wave reflections in computational
micromagnetics. S. Bance1, T. Schrefl1, D.A. Allwood1,
G. Hrkac1 and A. Goncharov11. Engineering Materials,
University of Sheffield, Sheffield, United Kingdom
9:12
GE-02. Resonant switching using spin valves. K. Rivkin1,2 andJ. Ketterson11. Northwestern University, Evanston, IL, USA; 2.
Texas A&M, College Station, TX, USA
9:24

GE-03. Spin waves in ultra-thin films under far-from-equilibrium
conditions. G. Bertotti1, C. Serpico2, I.D. Mayergoyz3 andM. d’Aquino21. INRIM, Torino, Italy; 2. Dept. of ElectricalEngineering, University of Napoli Federico II, Napoli, Italy; 3.
Dept. of Electrical and Computer Engineering, University of
Maryland, College Park, MD, USA

GE-08. Hysteretic properties of symmetrical spin-valves withelliptical cross-section and exchange-biasing at a skewed
angle. J.E. Miltat1 and I. Krivorotov21. Lab. Physique des Solides,
Univ. Paris-Sud & CNRS, Orsay, France; 2. Dept. of Physics andAstronomy, University of California, Irvine, CA, USA
10:36

GE-09. Micromagnetic modelling of the dynamics of exchange springs
in multilayer systems. M. Franchin1,2, J.P. Zimmermann2,
T. Fischbacher2, G. Bordignon1,2, A.A. Zhukov1, P.J. de Groot1
and H. Fangohr21. School of Physics and Astronomy, University ofSouthampton, Southampton, Hampshire, United Kingdom; 2.
School of Engineering Sciences, University of Southampton,
Southampton, Hampshire, United Kingdom
10:48

GE-10. Magnetism at nanoscopic scale : numerical simulation andapplication to domain wall pinning. T. Jourdan1, A. Marty1 and
F. Lançon11. DRFMC/SP2M, CEA Grenoble, Grenoble, France

9:36
11:00
GE-04. Reflection and refraction of dipole-exchange spin waves.
S. Choi1, K. Lee1 and S. Kim11. Research Center for Spin
Dynamics & Spin-Wave Devices (ReC-SDSW) andNanospintronics Laboratory, Seoul National University, Seoul
151-744, South Korea

GE-11. Single spin model of a small magnetic grain withinhomogeneities at the atomic length scale. E.D. Boerner11.
Seagate Technology, Pittsburgh, PA, USA

9:48

11:12

GE-05. Micromagnetics on curved geometries using rectangular cells:
error correction and analysis. M.J. Donahue2 andR.D. McMichael11. Metallurgy Division, NIST, Gaithersburg,
MD, USA; 2. Mathematical and Computational Sciences
Division, NIST, Gaithersburg, MD, USA

GE-12. Magnetization Reversal in Cubic Nanoparticles with Uniaxial
Surface Anisotropy. R. Skomski1, X.H. Wei1 and D.J. Sellmyer11.
Department of Physics and Astronomy and Nebraska Center for
Materials and Nanoscience, University of Nebraska, Lincoln, NE,
USA

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PROGRAMPROGRAM

11:24

10:12

GE-13. Accelerated LLG calculation of magnetic stability: “bounce”
algorithm. S. Wang1 and P.B. Visscher11. Physics and MINT
Center, University of Alabama, Tuscaloosa, AL, USA209

GF-05. Detection of bio-magnetic labels by sensing their induced
ferromagnetic resonance with magneto-resistive sensor.
Y. Zhou11. R&D, Headway Technology, Milpitas, CA, USA
10:24

THURSDAYMORNING
9:00

ESSEX

Session GF

MAGNETIC BIOSENSORSPaulo Cesar de Morais, Session Chair

GF-06. Hall Bio-Sensor Microfluidic Platform for Magnetic Labels.
M. Iino1, Y. Yamamoto1, M. Abe2, S. Sakamoto4, H. Handa4 and
A. Sandhu1,31. Department of Electrical and Electronic
Engineering, Tokyo Institute of Technology, Meguro, Tokyo,
Japan; 2. Department of Physical Electronics, Tokyo Institute ofTechnology, Meguro, Tokyo, Japan; 3. Quantum Nanoelectronics
Research Center, Tokyo Institute of Technology, Meguro, Tokyo,
Japan; 4. Graduate School of Bioscience and Biotechnology,
Tokyo Institute of Technology, Yokohama, Kanagawa, Japan

9:00
10:36
GF-01. On Controllability of Parallel Magnetic Manipulation ofMultiple Micro-Particles in Fluids. S. Bhat1, J. Guez1,
T. Kurzweg1, A. Guez1 and G. Friedman1,21. Electrical andComputer Engineering, Drexel University, Philadelphia, PA,
USA; 2. Surgery, Drexel College of Medicine, Philadelphia, PA,
USA
9:12

GF-02. On-chip manipulation of magnetically labeled human T cellsby simultaneous in-plane magnetophoresis and out-of-plane
negative dielectrophoresis. C. Liu1,2, L. Lagae1, W. Laureyn1 and
G. Borghs11. MCP/ART, Interuniversity Microelectronics Center(IMEC), Heverlee, Belgium; 2. Department of ElectricalEngineering (ESAT), Katholieke Universiteit Leuven, Leuven,
Belgium

GF-07. Assembly of superparamagnetic nanobeads via biologicalbinding and their magnetic detection with an InAs Hallsensor. P. Manandhar1, G. Mihajlovi ć1, S. von Molnár1, P. Xiong1,
K. Ohtani2, H. Ohno2, M. Field3 and G.J. Sullivan31. MARTECH
and Department of Physics, Florida State University, Tallahassee,
FL, USA; 2. Laboratory for Nanoelectronics and Spintronics,
Research Institute of Electrical Communication, Tohoku
University, Sendai, Japan; 3. Rockwell Scientific Company LLC,
Thousand Oaks, CA, USA
10:48

GF-08. Metallic Hall Effect Sensors for Biosensor Applications.
M.M. Miller1, J.A. Christodoulides1, D.T. Smith2, M.P. Raphael1,
D.J. Peña1, L.K. Kurihara1 and J.M. Byers11. Code 6363, Naval
Research Lab, Washington, DC, USA; 2. Center for
Nanomagnetic Systems, University of Houston, Houston, TX, USA

9:24
11:00
GF-03. Noise characteristic of Diode+MTJ matrix elements forbiochip applications. F.A. Cardoso1,2, R. Ferreira1,2,
S. Cardoso1,2, J. Conde1,2, V. Chu1, P.P. Freitas1,2, J. Germano2,3,
T. Almeida2,3, M.S. Piedade2,3 and L. Sousa2,31. INESC-MN,
Lisbon, Portugal; 2. Instituto Superior Tecnico, Lisbon, Portugal;
3. INESC-ID, Lisbon, Portugal
9:36

GF-04. Magnetic Multilayer Ring-based Digital Biosensors. (Invited)
J. Llandro1, T.J. Hayward1, Z. Jiang1, D. Morecroft1,2,
T. Mitrelias1, J.C. Bland1, F.J. Castaño2 and C.A. Ross21. Thin
Film Magnetism Group, University of Cambridge, Cambridge,
United Kingdom; 2. Department of Materials Science andEngineering, Massachusetts Institute of Technology, Cambridge,
MA, USAGF-09. Nanoparticle (γ-Fe_2O_3) Magnetization and Fluctuation
Detection by Micro-Hall Sensors. S. Nakamae1, D. L’Hôte1,
F. Ladieu1, V. Dupuis2, E. Dubois2, R. Perzynski2,
M. Konczykowski3 and V. Mosser41. SPEC, CEA-Saclay, Gif sur
Yvette, France; 2. Laboratoire des Liquides Ioniques et Interfaces
Chargées, Université Pierre et Marie Curie, Paris, France; 3.
Centre d’Etudes et de Recherches sur les Matériaux, Ecole
Polytechniques, Palaiseau, France; 4. ITRON France, Malakof,
France
11:12
GF-10. Ultra-Sensitive magnetic bio-sensor. W. Wang1 and Z. Jiang11.
Electrical Engineering, University of Wisconsin - Milwaukee,
Milwaukee, WI, USA

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PROGRAMPROGRAM

211

11:24

9:24

GF-11. InAs quantum well mesoscopic Hall sensors for biomolecularapplications. G. Mihajlovic1, P. Xiong1, v. Stephan1, K. Ohtani2,
H. Ohno2, M. Field3 and G.J. Sullivan31. MARTECH and
Department of Physics, Florida State University, Tallahassee, FL,
USA; 2. Laboratory for Electronics Intelligent Systems, ResearchInstitute of Electrical Communication,Tohoku University, Sendai,
Japan; 3. Rockwell Scientific Company LLC, Thousand Oaks, CA,USA

GG-03. Influences of annealing and sample geometry on the giant
magnetoimpedance effect in a glass-coated microwire LCresonator. A. Le1, C. Kim1, Y. Kim2, S. Yu2, M. Phan3 andH. Lee41. Department of Materials Engineering, Chungnam
National University, Daejeon, South Korea; 2. Department of
Physics, Chungbuk National University, Cheongju, South Korea;
3. Department of Aerospace Engineering, University of Bristol,
Bristol, United Kingdom; 4. Department of Physics Education,
Kongju National University, Kongju, South Korea

11:36
9:36
GF-12. Multilayer magnetic nanorods for biosensing and cellmechanics. P. Punnakitikashem1, S. Chang1 and Y. Hao11.
Materials Science and Engineering, University of Texas at
Arlington, Arlington, TX, USA
11:48

GF-13. Novel Biomagnetic Sensing Technique for in vivo
Characterization of Inflammatory Tissues. I. Tan1 and
A. Brazdeikis11. Department of Physics and Texas Center for
Superconductivity, University of Houston, Houston, TX, USA

GG-04. Effect of sputtered seed layer on electrodeposited
Ni80Fe20/Cu of composite wires. X. Li1, J. Yi1, C. Koh1,
H. Seet1, J. Yin2, S. Thongmee2 and J. Ding21. MechanicalEngineering, National University of Singapore, Singapore,
Singapore; 2. Materials Science and Engineering, National
University of Singapore, Singapore, Singapore
9:48

GG-05. Measurement and model of the tensile stress dependence ofthe second harmonic of non-linear GMI in amorphous wires.
D. Seddaoui1, D. Ménard1 and A. Yelon11. Engineering Physics,
École Polytechnique, Montréal, QC, Canada

THURSDAYMORNING
9:00

LAUREL
10:00

Session GG

GIANT MAGNETOIMPEDANCEPeter Eames, Session Chair

GG-06. Study of the Interactive Effect in Amorphous Microwire
Array by GMI Spectrum. J. Fan1, X. Li1, Z. Zhao2 andX. Qian11. Mechanical Engineering, National University ofSingapore, Singapore, Singapore; 2. Physics, East China Normal
University, Shanghai, China

9:00
10:12
GG-01. Oscillating voltage dependence of the magneto impedance inMagneto Tunneling Junctions. W. Chien1, L. Hsieh2, T. Peng1,
C. Lo2, Y. Yao1,3, P. Lin1 and X. Han41. Department of Materials
Science and Engineering, National Chiao Tung University,
Hsinchu, Taiwan; 2. Electronics and Optoelectronics ResearchLaboratories, Industrial Technology Research Institute, Hsinchu,
Taiwan; 3. Institute of Physics, Academia Sinica, Taipei, Taiwan;
4. Institute of Physics, Chinese Academy of Sciences, Beijing,
China

GG-07. GMI IN FM/SiO2/Cu/SiO2/FM FILMS AT GHz
FREQUENCIES. M.A. Corrêa1, A.D. C. Viegas2, F. Bohn1,
R.B. da Silva1, M.A. Carara1, L.F. Schelp1 and R.L. Sommer31.
Universidade Federal de Santa Maria, Santa Maria, Rio Grande
do Sul, Brazil; 2. Universidade Federal de Santa Catarina,
Florianopolis, SC, Brazil; 3. Centro Brasileiro de Pesquisas
Físicas, Rio de Janeiro, RJ, Brazil

9:12

10:24

GG-02. Optimized GMI response of Co-based amorphous glasscoated microwires by direct control over the surface
magnetoelastic anisotropy. H. Chiriac1, S. Corodeanu1, M. Tibu1
and T.A. Ovari11. National Institute of R&D for TechnicalPhysics, Iasi, Romania

GG-08. Nanocrystallization, giant magneto-impedance and quantum
interference effect in Fe73.5Cu1Nb3Si13.5B9 (FINEMET)
metallic glasses. T.K. Nath1 and M.K. Singh11. Physics &Meteorology, Indian Institute of Technology Kharagpur,
Kharagpur, West Bengal, India

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PROGRAM
10:36

GG-09. Electromagnetic noise suppressors integrated with a magnetic
thin film on a Si substrate. J. Sohn1, S. Han1, M. Yamaguchi2and S. Lim31. Nano Device Research Center, Korea Institute of
Science and Technology, Seoul, South Korea; 2. Department ofElectrical and Communication Engineering, Tohoku University,
Sendai, Japan; 3. Materials Science and Engineering, Korea
University, Seoul, South Korea
10:48
GG-10. Comparative Study on Magnetoimpedance Effect inLaminating FeAlN Films with Non-ferromagnetic andFerromagnetic layer. Z. Zhong1, H. Zhang1, Y. Jing1, X. Tang1and S. Liu21. State Key Laboratory of Thin Films and Integrated
Devices, University of Electronic Science and Technology ofChina, Chengdu, Sichuan, China; 2. School of Optoelectronic
Information, University of Electronic Science and Technology ofChina, Chengdu, Sichuan, China

PROGRAMTHURSDAYMORNING
9:00

213

DOVER

Session GH

AMORPHOUS AND NANOCRYSTALLINE
SOFT MATERIALS II
Ivan Skorvanek, Session Chair
9:00

GH-01. Effects of BCC-FCC transition in nanocrystalline grains onmagnetic properties of Fe-Ni-Nb-B alloys. I. Skorvanek1,
P. Svec2, J. Turcanova1, J. Marcin1, J. Kovac1 and D. Janickovic21.
Magnetism, Institute of Experimental Physics Slov. Acad. Sci.,
Kosice, Slovakia; 2. Institute of Physics, Bratislava, Slovakia
9:12

11:00
GG-11. Anomalous magnetoimpedance in Co-Fe-Al-O thin films.
A. Le1, D. Nguyen1, M. Phan2, C. Kim1, C. Kim1 and
M. Vázquez31. Research Center for Advanced Magnetic
Materials, Chungnam National University, Daejeon 305-764,
South Korea; 2. Department of Aerospace Engineering,
University of Bristol, Bristol BS8 1TR, United Kingdom; 3.
Instituto de Ciencia de Materiales, CSIC, 28049 Cantoblanco,
Madrid, Spain
11:12
GG-12. Generalized formalism for the calculation and optimization of
the magnetic noise in GMI based devices. L. Melo1,
D. Menard1, A. Yelon1, L. Ding2, S. Saez2 and C. Dolabdjian21.
Genie Physique, Ecole Polytechnique de Montreal, Montreal, QC,
Canada; 2. GREYC – CNRS UMR, ENSICAEN and University ofCaen, Caen, France

GH-02. Monte Carlo Simulations of Directional Pair Ordering in
BCC-Based Binary and Ternary Crystalline Alloys.
P.R. Ohodnicki1, D.E. Laughlin1 and M.E. McHenry11. Materials
Science and Engineering, Carnegie Mellon University,
Pittsburgh, PA, USA
9:24

GH-03. Spark-eroded oxide-coated Fe-Si-B particles for highfrequency applications. J. Hong1, V.C. Solomon2, P. Madras2,
D.J. Smith2, M. Brand3 and A.E. Berkowitz1,41. Center for
Magnetic Recording Research, University of California-San
Diego, La Jolla, CA, USA; 2. Center for Solid State Science andDepartment of Physics and Astronomy, Arizona State University,
Tempe, AZ, USA; 3. Raytheon Company, El Segundo, CA, USA; 4.
Department of Physics, University of California - San Diego, La
Jolla, CA, USA
9:36

11:24
GG-13. Permeability Variation Measurements of Bi-Layered
Magnetostrictive/Piezoelectric Composite Materials for
Tunable Microwave Applications. S. De Blasi1, S. Dubourg2,
P. Queffelec1, O. Bodin2 and M. Ledieu21. LEST UMR-CNRS
6165, Brest Cedex, France; 2. CEA Le Ripault, Monts, France

GH-04. Magnetostatic coupling in soft/hard bi-phase magnetic
systems based on amorphous alloys. J. Torrejón1, L. Kraus2,
K. Pirota1, G. Badini1 and M. Vázquez11. Magnetism, ICMM
(CSIC), Madrid, Spain; 2. Magnetism, ASCR, Prague, Czech
Republic

11:36

9:48

GG-14. Observation of inverse Doppler effect in in-plane magnetizedmagnetic film. G. Melkov1, Y. Koblyanskiy1, V. Malyshev1,
B. Hillebrands2 and A. Slavin31. Radiophysics Faculty, Taras
Shevchenko Kiev University, Kiev, Ukraine; 2. Fachbereich
Physik, Technische Universitaet Kaiserslautern, Kaiserlautern,
Germany; 3. Physics, Oakland University, Rochester, MI, USA

GH-05. Crystallization and Phase Evolution of Co-Rich HiTPerm
Alloys with Co:Fe Ratio Corresponding to the Two-Phase
Region of the Binary FeCo-Phase Diagram. P.R. Ohodnicki1,
H. McWilliams1, K. Ramos1, S. Park1, D.E. Laughlin1 and
M.E. McHenry11. Materials Science and Engineering, Carnegie
Mellon University, Pittsburgh, PA, USA

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PROGRAMPROGRAM

10:00

11:12

GH-06. Effect of B to Si concentration ratio on glass-forming ability
and soft-magnetic properties in (Co0.705Fe0.045B0.25xSix)96Nb4 bulk glassy alloys. B. Shen1, Y. Zhou1, C. Chang1
and A. Inoue11. Institute for Materials Research, Tohoku
University, Sendai, Miyagi, Japan215

GH-12. Size triggered change in the magnetization mechanism ofnearly zero magnetostrictive amorphous glass-coatedmicrowires. H. Chiriac1, S. Corodeanu1, M. Tibu1 and
T.A. Ovari11. National Institute of R&D for Technical Physics,
Iasi, Romania

10:12

11:24

GH-07. Structure and magnetic properties of nanocrystalline soft
magnetic alloys with improved mechanical properties.
T.M. Heil1, J.J. Flores2 and M.A. Willard11. Code 6355, Naval
Research Laboratory, Washington, DC, USA; 2. Department of
Physics, University of Puerto Rico, Rio Piedras Campus, San
Juan, Puerto RicoGH-13. Exchange bias in the amorphous Fe−Cr−Co system.
G. Mastrogiacomo1 and J.F. Löffler11. Laboratory of Metal
Physics and Technology, Department of Materials, ETH Zurich,
8093 Zurich, Switzerland

10:24

GH-08. Improvement of soft magnetic properties by simultaneous
addition of P and Cu for nanocrystalline FeNbB alloys.
A. Makino1, T. Bitoh2, M. Bingo2, T. Yamamoto1 and A. Inoue11.
Institute for Materials Research, Tohoku University, Sendai,
Miyagi, Japan; 2. Department of Machine Intelligence andSystems Science, Akita Prefectural University, Yurihonjo, Akita,
Japan

10:36

GH-09. Cryogenic hysteretic loss analysis for (Fe,Co,Ni)-Zr-B-Cu
nanocrystalline soft magnetic alloys. M.A. Willard1 and
T.M. Heil11. Code 6355, U. S. Naval Research Laboratory,
Washington, DC, USA

10:48

GH-10. CORE LOSSES OF NANOCRYSTALLINE SOFTMAGNETIC MATERIALS UNDER SQUARE VOLTAGE
WAVEFORMS. V. Valchev1, A.P. Van den Bossche2 and
P. Sergeant21. Electronics, TU-Varna, Bulgaria, Varna, Bulgaria;
2. EESA, Ghent University, Gent, Belgium

11:00

GH-11. Structural Studies of Secondary Crystallization Products of
the Fe23B6-type in a Nanocrystalline FeCoB-based Alloy.
J. Long1, P.R. Ohodnicki1, D.E. Laughlin1, M.E. McHenry1,
T. Ohkubo2 and K. Hono21. Materials Science and Engineering,
Carnegie Mellon University, Pittsburgh, PA, USA; 2. National
Institute for Materials Science, Tsukuba, JapanTHURSDAYMORNING
8:00

GRAND BALLROOM

Session GP

SPIN DYNAMICS AND RELAXATION III(POSTER SESSION)
Konstantin Guslienko, Session Chair
GP-01. Experimental observation of Fermi-Pasta-Ulam recurrence ina magnetic film-based active feedback ring. M. Wu1 andC.E. Patton11. Department of Physics, Colorado State University,
Fort Collins, CO, USA
GP-02. Observation of partial decoherence of quantized spin waves innanoscaled magnetic ring structures. H. Schultheiss1,
P. Candeloro1, B. Leven1, A. Slavin2 and B. Hillebrands11.
Department of Physics, TU Kaiserslautern, Kaiserslautern,
Germany; 2. Department of Physics, Oakland University,
Rochester, MI, USA
GP-03. Macrospin relaxation and switching close to the Curie
temperature: a multi-scale approach. O. Chubykalo-Fesenko1,
U. Nowak2, N. Kazantseva2, D. Hinzke2, R. Chantrell2,
O. Mryasov3 and D. Garanin41. Material Science Institute of
Madrid, Madrid, Spain; 2. University of York, York, United
Kingdom; 3. Seagate Research, Pittsburgh, PA, USA; 4.
Department of Physics and Astronomy, Lehman College, City
University of New York, New York, NY, USA
GP-04. Spin dynamics of ferromagnetic dots in the vortex state: lowfrequency susceptibility, relaxation and non-linear effects.
K. Guslienko11. Research Center for Spin Dynamics & Spin-Wave
Devices and Nanospintronics Laboratory, Seoul National
University, Seoul, South Korea

216

PROGRAMPROGRAM

GP-05. Ps pulsed excitation of spin packets and spin currents.
M. Djordjevic1, J. Walowski1, G. Müller1, G. Eilers1 and
M.G. Muenzenberg11. IV. Phys. Institute, Göttingen University,
Göttingen, Germany

GP-15. Optical modification of magnetic anisotropy and stimulationof precession in a Co2MnAl thin film. L.R. Shelford1, Y. Liu1,
V.V. Kruglyak1, R.J. Hicken1, Y. Sakuraba2, M. Oogane2, Y. Ando2
and T. Miyazaki21. Physics, University of Exeter, Exeter, United
Kingdom; 2. Department of Applied Physics, Tohoku University,
Sendai, Japan

GP-06. Simulation of spin dynamics excited by sub-picosecond heatpulses. N. Kazantseva1, R.W. Chantrell1 and U. Nowak11. Physics,
University of York, York, United Kingdom
GP-07. Lowest intrinsic and total ferromagnetic damping inferromagnetic metals: epitaxial MgO/Fe1-xVx. C. Scheck1,
L. Cheng1, I. Barsukov2, Z. Frait2 and W.E. Bailey11. APAM,
Columbia University, New York, NY, USA; 2. Institut of physics,
Academy of sciences of the Czech Republic, Prague, Czech
Republic

THURSDAYMORNING
8:00

217

GRAND BALLROOM

Session GQ
GP-08. Bose-Einstein condensation of magnons under parametricpumping: direct observation at room temperature.
S.O. Demokritov1, V.E. Demidov1, O. Dzyapko1, G.A. Melkov2
and A.N. Slavin31. University of Muenster, Muenster, Germany; 2.
National Taras Schevchenko University of Kiev, Kiev, Ukraine; 3.
Oakland University, Rochester, MI, USA
GP-09. Non-local dynamics due to Spin Pumping. G. Woltersdorf1,
O. Mosendz2, F. Hoffmann1, B. Heinrich2 and C.H. Back11.
Physics, University of Regensburg, Regensburg, Germany; 2.
Physics, Simon Fraser University, Burnaby, BC, Canada
GP-10. Pulsed inductive measurement of ultra-fast magnetization
dynamics in interlayer exchange coupled NiFe/Ru/NiFe films.
T. Martin1, M. Belmeguenai1, M. Maier1, K. Perzlmaier1 and
G. Bayreuther11. Universitaet Regensburg, Regensburg, Germany
GP-11. Nonlinear resonant and chaotic magnetization dynamics inmicrowave assisted magnetization switching. C. Serpico1,
G. Bertotti2, M. d’Aquino1, I.D. Mayergoyz3 and R. Bonin21.
Dept. of Electrical Engineering, University of Napoli, Napoli,
Italy; 2. Istituto Nazionale di Ricerca Metrologica (INRIM),
Torino, Italy; 3. ECE Department and UMIACS, University of
Maryland, College Park, MD, USA
GP-12. Femtosecond time-resolved magneto-optical Kerr study ofcoherent spin waves in La0.67Ca0.33MnO3. Y. Ren1, D. Wang2,
R. Merlin2, A. Venimadhav3 and Q. Li31. Physics, CUNY, HunterCollege, New York, NY, USA; 2. Physics, The University ofMichigan, Ann Arbor, MI, USA; 3. Physics, Pennsylvania State
University, University park, PA, USA
1,2

GP-13. Precession damping in itinerant ferromagnets. K. Gilmore ,M.D. Stiles2 and Y.U. Idzerda11. Physics, Montana State
University, Bozeman, MT, USA; 2. Electron Physics, National
Institute of Standards and Technology, Gaithersburg, MD, USA
GP-14. Study of Individual Ferromagnetic Dots with Femtosecond
Optical Pulses. A. Laraoui1, J. Vénuat1, V. Halté1, M. Albrecht1,
M. Vomir1, E. Beaurepaire1 and J. Bigot11. Institute of Physics andChemistry of Materials at Strasbourg (IPCMS), UMR7504,
CNRS, University Louis Pasteur, Strasbourg, France

OXIDE MAGNETIC SEMICONDUCTORS II(POSTER SESSION)
George Kieseoglou, Session Co-chair
Aubrey Hanbicki, Session Co-chair
GQ-01. First-principles investigation of Co- and Fe-doped SnO2
W. Xianlong1, Z. Zhi1 and L. Haiqing21. Key Laboratory ofMaterials Physics, Institute of Solid State Physics, Chinese
Academy of Sciences, Hefei, China; 2. Department of Physics
and Institute of Theoretical Physics, The Chinese University ofHong Kong, Shatin, Hong Kong, China

GQ-02. Absence of ferromagnetism in V-implanted ZnO crystals.
S. Zhou1, K. Potzger1, G. Zhang1, N. Schell1, W. Skorupa1,
M. Helm1 and J. Fassbender11. Institute of Ion Beam Physics andMaterials Research, Forschungszentrum Rossendorf, Dresden,
Germany

GQ-03. ESR and Raman scattering spectra of Mn-doped ZnO
ceramics. T. Phan1, M. Phan2, R. Vincent1, X. Nguyen3 andS. Yu41. Microstructures Group, Department of Physics,
University of Bristol, Bristol BS8 1 TR, United Kingdom; 2.
Department of Aerospace Engineering, University of Bristol,
Bristol BS8 1 TR, United Kingdom; 3. Institute of Materials
Science, Academy of Science and Technology, Hanoi, Viet Nam; 4.
Department of Physics, Chungbuk National University, Cheongju
361-763, South Korea

GQ-04. Electronic structure and magnetic properties of copper
diffused ZnO(0001): ab initio approach. Y. Kim1, S. Lee2, J. Im3
and Y. Chung11. Materials Science and Engineering, Hanyang
University, Seoul, South Korea; 2. Central R&D Institute,Samsung Electro-Mechanics Co. Ltd., Suwon, South Korea; 3.
Korea Institute of Ceramic Engineering and Technology, Seoul,
South Korea

GQ-05. Fe valence states and ferromagnetism occurring in reduced
anatase Ti0.97Fe0.03O2-δ H. Lee1 and C. Kim11. Physics, Kookmin
University, Seoul, South Korea

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PROGRAMPROGRAM

GQ-06. Structural and magnetic properties of Mn-doped CuO thinfilms. H. Zhu1, F. Zhao2, L. Pan2, Y. Zhang2, C. Fan2, Y. Zhang2
and J.Q. Xiao11. Physics and Astronomy, University of Delaware,
Newark, DE, USA; 2. Department of Physics, University of
Science and Technology Beijing, Beijing, China

GQ-15. Thickness dependence of the magneto-optical properties of
ZnO:Ti. J.R. Neal1, A. Mohktari1, A.J. Behan1, H.J. Blythe1,
A.M. Fox1 and G.A. Gehring11. Department of Physics andAstronomy, The University of Sheffield, Sheffield, United
Kingdom

GQ-07. Tuning the Electrical and Magnetic Properties of Cr Doped
In2O3 by Vacuum Annealing. P. Kharel1, S. Chandran1,
S. Moodakare B1, G. Lawes1, R. Suryanarayanan2,1, R. Naik1 and
V.M. Naik31. Department of Physics and Astronomy, Wayne State
University, Detroit, MI, USA; 2. LPCES, Université Paris-Sud,
Orsay, France; 3. Department of Natural Sciences, University ofMichigan-Dearborn, Dearborn, MI, USA

GQ-16. Structure and magnetic properties of V-doped SnO2 thinfilms. J. Zhang1,3, R. Skomski1,3, Y. Lu2,3 and D.J. Sellmyer1,31.
Department of Physics and Astronomy, University of NebraskaLincoln, Lincoln, NE, USA; 2. Department of ElectricalEngineering, University of Nebraska-Lincoln, Lincoln, NE, USA;
3. Nebraska Center for Materials and Nanoscience, University of
Nebraska-Lincoln, Lincoln, NE, USA

GQ-08. Mapping ferromagnetism in Ti1-xCoxO2 – Role of preparation
temperature (200 – 900 oC) and doping concentration(0.00015 < x < 0.1). K.M. Reddy1 and A. Punnoose11. Physics
Department, Boise State University, Boise, ID, USA

GQ-17. WITHDRAWN

GQ-09. Ferromagnetism in sputtered manganese-doped indium tinoxide films with high conductivity and transparency.
T. Nakamura1, K. Tanabe1 and K. Tachibana11. Department ofElectronic Science and Engineering, Kyoto University, Kyoto,
Japan
GQ-10. Hydrogenated annealing on structural, electronic andmagnetic properties of V-doped ZnO. S. Liu1, H. Hsu1, C. Lin2
and J. Huang1,31. Physics, National Cheng-Kung University,
Tainan, Taiwan; 2. Mechanical Engineering, Southern Taiwan
University of Technology, Tainan, Taiwan; 3. Applied Physics,
National Kaohsiung University, Kaohsiung, Taiwan
GQ-11. An Fe3+ Electron Paramagnetic Resonance Study of Sn11
1
2
2
xFexO2 S.K. Misra , S.I. Andronenko , K.M. Reddy , J. Hays ,22
A. Thurber and A. Punnoose 1. Physics, Concordia University,
Montreal, QC, Canada; 2. Physics, Boise State University, Boise,
ID, USA
GQ-12. Room temperature fabricated ZnCoO films with high carrier
concentration. H. Huang1, C. Lai1, P. Huang1, C. Yang1,
H. Huang2 and H. Bor21. Materials Science and Engineering,
National Tsing Hu University, HsinChu, Taiwan; 2. Materials &Electro-Optics Research Division Metallurgy Division, ChuangShan Institute of Science & Technology, TaoYuan, Taiwan
GQ-13. Phase diagram of ferromagnetism in Co: (La,Sr)TiO3.
S. Zhang1, D.C. Kundaliya1, S.B. Ogale1, L. Fu2, S. Young3,
S. Dhar1, N.D. Browning2, L.G. Salamanca-Riba3 and
T. Venkatesan11. Physics Department, University of Maryland,College Park, MD, USA; 2. Lawrence Berkeley National
Laboratory, Berkeley, CA, USA; 3. Department of Materials
Science and Engineering, University of Maryland, College Park,
MD, USA
GQ-14. Influence of defects on the magnetism of Mn-doped ZnO.
D.M. Iusan1, B. Sanyal1 and O. Eriksson11. Department of
Physics, Theoretical Magnetism Group, Uppsala University,
Uppsala, Sweden

219

GQ-18. Interpretation of ferromagnetic Fe doped ZnO by the
Mössbauer spectroscopy. S. Park1, G. Ahn2 and C. Kim11.
Department of Physics, Kookmin University, Seoul, South Korea;
2. Neutron Physics, HANARO, Korea Atomic Energy ResearchInstitute, Daejeon, South Korea
GQ-19. Relationship between carrier mobility and oxygen vacancy inferromagnetic Mn-doped ZnO. S. Park1, H. Lee1, P. Kim1,
Y. Lee1, T. Kim2, J. Rhee3 and J. Kang41. Physics & q-Psi,
Hanyang University, Seoul, South Korea; 2. Physics, Ewha
womans University, Seoul, South Korea; 3. BK21 & Dept. ofPhysics, Sungkyunkwan University, Suwon, South Korea; 4.
Physics, Kookmin University, Seoul, South Korea
GQ-20. Ferromagnetism in Cu-doped ZnO nanocrystals. X. Wang1,
J. Xu1, W. Cheung1, N. Ke1 and S. Wong11. Department ofElectronic Engineering, The Chinese University of Hong Kong,
Shatin, New Territories, Hong Kong
GQ-21. Influence of Mn substitution on microstructure and magnetic
properties of Cu1-xMnxO nanoparticles. N.R. Gade1,2, Y.D. Yao2
and J.W. Chen11. Physics, National Taiwan University, Taipei,
Taipei, Taiwan; 2. Physics, Academia Sinica, Taipei, Nankang,
TaiwanGQ-22. Doped ZnO Nanoclusters: Synthesis, Characterization, andFerromagnetism at Room Temperature. Y. Qiang1, J. Antony1,
A. Sharma1, D. Meyer1 and M. Faheem11. Physics Department,
University of Idaho, Moscow, ID, USA
GQ-23. Giant magnetoresistance in Co-doped ZnO nanocluster films.
M. Faheem1, Y. Qiang1, J. Antony1, S. Yan2 and L. Mei21. Physics
Department, University of Idaho, Moscow, ID, USA; 2. School ofPhysics and Microelectronics, Shandong University, Jinan,
Shandong, China
GQ-24. Large positive magnetoresistance effect and valences of Mn in
In1.90-xMn0.1SnxO3. X. Wang1, G. Peleckis1, S. Dou1 and
R. Liu21. Institute for Superconducting and Electronic Materials,
University of Wollongong, Wollongong, NSW, Australia; 2.
Department of Chemistry, National Taiwan University, Taipei,
Taiwan220

PROGRAMTHURSDAYMORNING
8:00

PROGRAMGRAND BALLROOM

Session GR

MULTIFERROIC OXIDES(POSTER SESSION)
Lyuba Belova, Session Chair
GR-01. Magnetic Properties of Epitaxial Films of BiCrO3 S. Lofland1,
R. Chimenti1, E. Knoesel1, S. Fujino2, M. Murakami2 andI. Takeuchi21. Physics and Astronomy, Rowan University,
Glassboro, NJ, USA; 2. Materials Science and Engineering,
University of Maryland, College Park, MD, USA

GR-02. Magnetic Characterization of Nanogranular BaTiO3CoFe2O4 Thin Films Deposited by Pulsed Laser Ablation.
J. Barbosa1, B. Almeida1, J.A. Mendes1, A. Rolo1, J.P. Araújo2 andJ.B. Sousa21. Physics, Minho University, Braga, Portugal; 2.
Physics and IFIMUP, Porto University, Porto, Portugal

GR-03. Observation of high dielectric constant of RMn2O5 with R =Tb, Dy, and Er. K. Kuo1, G. Chern1, T.C. Han2 and J.G. Lin21.
SPIN Research Center and Physics Department, National Chung
Cheng University, Chia-Yi, Taiwan; 2. Center for Condensed
Matter Sciences, National Taiwan University, Taipei, Taiwan

GR-04. Magnetic properties and electronic structure of doped
multiferroic YxA1-xMnO3(A=Ca, Sr). C. Hsieh1, T. Cheng1,
J. Lee3, J. Chen3, J. Juang1,4, J. Lin2, K. Wu1, T. Uen1 and
Y. Gou41. Department of Electrophysics, National Chiao-Tung
University, Hsinchu, Taiwan; 2. Institute of Physics, National
Chiao Tung University, Hsinchu, Taiwan; 3. National Synchrotron
Radiation Research Center, Hsinchu, Taiwan; 4. Department of
Physics, National Taiwan Normal University, Taipei, Taiwan

GR-05. Dynamically Coupled Magneto-Elasto-Electric Effect inMultiferroic Laminated Composites of 1–3 Magnetostrictive
Composite and 1-3 Piezoelectric Composite. S. Or1 and
N. Cai11. Department of Applied Physics, The Hong Kong
Polytechnic University, Kowloon, Hong Kong

GR-06. Modulation of Forward Bias Threshold Voltage in all Oxide
Schottky and p-n Junction Microdevices. D. Kundaliya1,
S.B. Ogale1, L.F. Fu2, G. Langham1, N.D. Browning2 and
T. Venkatesan11. Department of Physics, University of Maryland,,College park, MD, USA; 2. Lawrence Berkeley National
Laboratory, Berkeley, CA, USA

GR-07. Structural, magnetic and ferroelectric properties ofmultiferroic BiFeO3 film fabricated by chemical solution
deposition. H. Naganuma1 and S. Okamura11. Department ofApplied Physics, Fuculty of Science, Tokyo University of Science,
Tokyo, Japan221

GR-08. Magnetoelectric coupling in
Pb(Zr0.5Ti0.5)O3/La0.9Sr0.1MnO3 bilayer. L. Jeng-Hwa1,
W. Tai-Bor1, C. Yuan-Tsung1 and W. Jenn-Ming11. Department ofMaterials Science and Engineering, National Tsing Hua
University, Hsinchu, Taiwan
GR-09. Study on multiferroic properties in Co/BaTiO3 nanocomposite
thin films. J. Park1, M. Kim3, Y. Jeong2 and H. Jang11.
Department of Materials Science and Engineering, POSTECH,
Pohang, South Korea; 2. Department of Physics, POSTECH,
Pohang, South Korea; 3. Pohang Accelerator Laboratory, Pohang,South Korea
GR-10. Magnetoelectric Effect of Ferroelectric LuFe2O4 at Room
Temperature. J. Park1, J. Park1, S. Ryu1, Y. Jung1 and H. Jang11.
Department of Materials Science and Engineering, POSTECH,
Pohang, South Korea
GR-11. Mössbauer studies of multiferroic spinel CoCr1.9857Fe0.02O4
K. Choi1, S. Kim1 and C. Kim11. Physics, Kookmin Univ., Seoul,
South Korea
GR-12. Mössbauer studies of mixed valence LuFe2O4 B. Bang1,
S. Kim1, S. Cheong2 and C. Kim11. Physics, Kookmin University,
Seoul, South Korea; 2. Physics & Astronomy, Rutgers University,
Piscataway, NJ, USA
GR-13. Epitaxial growth and properties of multiferroic BiFeO3 and
BiCrO3 thin films. S. Gepraegs1, S.T. Goennenwein1, M. Opel1
and R. Gross11. Walther-Meissner-Institut, Bayerische Akademie
der Wissenschaften, Garching, Germany
GR-14. Neutron diffraction and dielectric anomalies in YMn2-xFexO5
D. Kim1, S. Kim1 and C. Kim11. Physics, Kookmin University,
Seoul, South Korea
GR-15. PREPARATION AND CHARACTERISATION OF THE
MULTIFERROIC xBiFeO3-(1-x)BaTiO3 SOLID
SOLUTIONS. L. Mitoseriu1,2, A. Ianculescu3, M.M. Carnasciali4and A. Stancu11. Dept. of Solid state and Theor. Phys., Univ. Al. I.
Cuza Iasi, Iasi, Romania; 2. Dept. of Chemical & Process Eng.,
University of Genoa, Genoa, Italy; 3. Dept. of Industrial
Chemistry, Polytehnics University, Bucharest, Romania; 4. Dept.
of Chemistry & Industrial Chemistry, University of Genoa,
Genoa, Italy
GR-16. Magnetically frustrated behavior in multiferroics RMn2O5(R=Bi, Eu, and Dy): A Raman scattering study. A. GarcíaFlores1, E. Granado1, H. Martinho2, R.R. Urbano1, C. Rettori1,
E.I. Golovenchits3, V.A. Sanina3, S.B. Oseroff4, S. Park5 and
S.W. Cheong51. Instituto de Física Gleb Wataghin, Universidade
Estadual de Campinas, Campinas-SP, São Paulo, Brazil; 2.
Instituto de Pesquisa e Desenvolviennto, UNIVAP, São José dos
Campos, SP, Brazil; 3. Ioffe Physical-Technical Institute of RAS,
RAS, St. Petersburg, Russian Federation; 4. San Diego State
University, San Diego, CA, USA; 5. Department of Physics andAstronomy, Rutgers University, Piscataway, NJ, USA

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PROGRAMTHURSDAYMORNING
8:00

PROGRAMGRAND BALLROOM

223

GS-08. 3D FEM Analysis of a Novel Structure of Axial Flux
Homopolar Generator Using Grain-Oriented Silicon Steel for
Stator Core. S. Javadi1, M. Mirsalim1, M. Mirzaei1 andH. Gholizad11. Electrical Engineering Department, Amirkabir
University of Technology, Tehran, Iran

Session GS

MOTORS II(POSTER SESSION)

GS-09. WITHDRAWNPaul Chao, Session Chair

GS-01. Modeling of Cross-Coupling Magnetic Saturation in Signal
Injection based Sensorless Control of Permanent Magnet
Brushless AC Motor. Y. Li1, Z. Zhu1, C. Bingham1 andD. Howe11. University of Sheffield, Sheffield, United Kingdom

GS-02. Different Angle Sensorless Drive for a DC Brushless Motor.
C. Wang1, S. Wang2, S. Lin1 and H. Lin11. Electrical and Control
Engineering, National Chiao Tung University, Hsinchu, Taiwan;
2. SonicEdge Industries Corporation, Hsinchu Hsien, Taiwan

GS-03. Optimal Design of a Magnetic Zooming Mechanism Used in
Cameras of Mobiles Phones via Genetic Algorithm. P. Chao1and S. Wu21. Department of Electrical and Control Engineering,
National Chiao Tung University, Hsinchu, Taiwan; 2. Departmentof Mechanical Engineering, Chung Yuan Christian University,
Chung-Li, Taiwan

GS-04. Optimal Design of Magnetic Actuated Optical Image
Stabilization Mechanism for Camera Phone via Genetic
Algorithm. C. Chiu1, P. Chao1 and D. Wu21. Department ofElectrical and Control Engineering, National Chiao Tung
University, Hsinchu, Taiwan; 2. Department of MechanicalEngineering, Chung Yuan Christian University, Chung Li, Taiwan

GS-05. A New Co-simulation Approach to Performance Analysis of aHybrid Excited Doubly Salient Motor Considering Indirect
Field-Circuit Coupling. X. Zhu1, M. Cheng1, W. Zhao1, J. Zhang1
and W. Hua11. Deapt. of Electrical Engineering, Southeast
University, Nanjing, China

GS-06. Effect of Armature Reaction of a PM Claw Pole SMC Motor.
Y. Dou1,2, Y. Guo2, J. Zhu2 and H. Lu31. Faculty of ElectricEngineering and Automation, Nanjing Normal University,
Nanjing, Jiangsu, China; 2. Faculty of Engineering, University ofTechnology, Sydney, Sydney, NSW, Australia; 3. Faculty ofInformation Technology, University of Technology, Sydney,
Sydney, NSW, Australia

GS-07. Design and Servo Control of a Single-Deck Planar Maglev
Stage. Y. Lai1, Y. Lee1 and J. Yen11. National Taiwan University,
Taipei, Taiwan

GS-10. Open Type Magnetically Shielded Room Using Only
Cancelling Coil without a Ferromagnetic Wall for Magnetic
Resonance Imaging. S. Hirosato1, K. Yamazaki1, K. Muramatsu2,
M. Hirayama2, K. Kamata3, T. Onoki4, K. Kobayashi4, A. Haga5,
K. Katada6, Y. Kinomura6 and Y. Kuwayama61. Takenaka Corp.,
Inzai, Chiba, Japan; 2. Saga Univ., Saga, Saga, Japan; 3.
Kagoshima National College of Technology, Kirishima,
Kagoshima, Japan; 4. Iwate Univ., Morioka, Iwate, Japan; 5.
Tohoku-Gakuin Univ., Tagajo, Miyagi, Japan; 6. Fujita Health
Univ. & Univ. of Hospital, Toyoake, Aichi, Japan

GS-11. Development of A 2-degree-of-freedom Rotational/Linear
Switched Reluctance Motor. Y. Sato11. Dept. of Mech. Eng.,
Yokohama National University, Yokohama, Japan

GS-12. An Effective Method for Design and Performance Predictionof Switched Reluctance Motor for a Variable Speed Pumping
System. L. Jian1 and C. Yunhyun11. Electrical Engineering,Dong-A University, Pusan, South Korea

GS-13. Analysis of Linear Switched Reluctance Motor for MAGLEV
system. S. Jang1, J. Park1 and J. Choi11. Dept. of ElectricalEngineering, Chungnam National University, Daejeon, South
Korea

GS-14. Accurate Calculation of Core Loss in a Switched ReluctanceMotor. N.K. Sheth1,2 and K.R. Rajagopal11. ElectricalEngineering Department, Indian Institute of Technology Delhi,
New Delhi-110016, Delhi, India; 2. Electrical Engineering
Department, Institute of Technology, Nirma University of Scienceand Technology, Ahmedabad-382481, Gujarat, India

GS-15. Optimization of Homogeneous Superconducting Magnet with
Nonlinear Constraints. Y. Kwon1, H. Jung1 and M. Jang11.
School of Electrical Engineering, Pusan National Unversity,
Busan, South Korea

GS-16. Development of a PM linear motor for Driving an HTS
Maglev Transportation Prototype. Y. Guo1, J. Chen2,1, J. Zhu1,
J. Jin3 and H. Lu41. Faculty of Engineering, University ofTechnology, Sydney, Sydney, NSW, Australia; 2. College ofElectromechanical Engineering, Donghua University, Shanghai,
Shanghai, China; 3. School of Automation Engineering,
University of Electronic Science and Technology of China,
Chengdu, Sichuan, China; 4. Faculty of Information Technology,
University of Technology, Sydney, Sydney, NSW, Australia

224

PROGRAMTHURSDAYMORNING
8:00

PROGRAMGRAND BALLROOM

Session GT

CONTROLS, ACTUATORS, AND LINEAR
MOTORS(POSTER SESSION)
Yon Do Chun, Session Co-chair
Tae Heong Kim, Session Co-chair
GT-01. Force Ripples Suppression of Permanent Magnet Linear
Synchronous Motor. Y. Zhu1 and Y. Cho11. ElectricalEngineering, Servo Machine Lab. Dong-A University, Busan,
South Korea

GT-02. Dynamic Range Verification of Linear PM Machine Using
Design Parameters Estimation and Infinite Motion of Disktype PMLSM. D. You1 and S. Jang11. electrical engineering,chungnam national univ., daejeon, South Korea

GT-03. A new approach using wavelets to analyze an EDS Maglev
dynamics. W. Ko1 and C. Ham11. University of Central Florida,
Orlando, FL, USA

GT-04. Variation of Phase Difference between the Peak Value ofApplied Current and the Maximum Position of Mover in
Linear Actuator. B. Woo1, D. Hong1, D. Kang1, J. Jang1 and
D. Jung11. #6-305, Korea Electrotechnology Research Institute,
Changwon, Kyungnam, South Korea

GT-05. Analysis and Improvement of the Miniature Matrix Array
Transducer System for Loudspeakers. R. Rashedin1 and
T. Meydan11. Wolfson Centre for Magnetics, Cardiff University,
Cardiff, United Kingdom

GT-06. Cogging Force Verification by Deforming the Shape of theOutlet Edge at the Armature of a Stationary Discontinuous
Armature PM-LSM. Y. Kim1, M. Watada1 and H. Dohmeki11.
Department of Electrical and Electronic Engineering, Musashi
Institute of Technology, Tokyo, Japan

GT-07. Design of a cantilevered actuator driven by magnetostriction.
C. Yokota1, K. Ishiyama1, A. Yamazaki1 and K. Arai11. ResearchInstitute of Electrical Communication, Tohoku University, Sendai,Japan

GT-08. Fast Auto-focusing of a Linear Actuator in Digital Video
Cameras Using Output Feedback Sliding Mode Control.
H. Yu1,2 and T. Liu21. Electronics and Opto-electronics ResearchLaboratories, Industrial Technology Research Institute, Hsinchu,
Taiwan; 2. Department of Mechanical Engineering, National
Chiao Tung University, Hsinchu, Taiwan

225

GT-09. Speed Range Based Optimization of Non-linear
Electromagnetic Braking Systems. A. Adly1 and S. Abd-ElHafiz21. Elect. Power & Machines Dept., Cairo University, Giza,
Egypt; 2. Engineering Mathematics Dept., Cairo University, Giza,
Egypt
GT-10. Induction machine rotor iron loss calculation using harmonic
identification. A. Knight11. Electrical and Computer Eng,
University of Alberta, Edmonton, AB, Canada
GT-11. Optimization Design of Induction Motor Based on Sizing
Equation and Genetic Algorithm. Y. Chun1, P. Han1 andD. Koo11. Korea Electrotechnology Research Institute,
Changwon, South Korea
GT-12. A study on the optimal design of synchronous reluctancemotor for the maximum torque and power factor. K. Kim1,
J. Ahn1, S. Won1 and J. Lee11. Dept. of electrical engineering,hanyang university, seoul, South Korea
GT-13. Analysis of axial magnetic force distribution due to the axial
clearance for electrical rotating machine. K. Kim1 and J. Lee11.
Dept. of electrical engineering, hanyang university, seoul, South
Korea
GT-14. Performance improvement of an external-rotor split-phaseinduction motor for low-cost drive applications using external
rotor can. P.J. Holik1, D.G. Dorrell1 and M. Popescu11. Dept ofElectronics and Electrical Engineering, University of Glasgow,
Glasgow, United Kingdom
GT-15. Design of Premium High Efficiency Induction Motor with
Copper Rotor Cage. P. Han1, Y. Chun1 and D. Koo11.
Mechatronics Research Group, Korea Electrotechnology ResearchInstitute, Changwon, Gyeongsangnam-do, South Korea
GT-16. Space mapping optimization of the magnetic circuit ofelectrical machines including local material degradation.
G. Crevecoeur1, L. Dupré1 and R. Van de Walle21. Department ofElectrical Energy, Systems and Automation, Ghent University,
Ghent, Belgium; 2. Department of Electronics and Information
Systems, Ghent University, Ghent, Belgium

THURSDAYMORNING
8:00

GRAND BALLROOM

Session GU

MAGNETIC MICROSCOPY AND IMAGING II(POSTER SESSION)
Amit Kohn, Session Chair
GU-01. Inverse Scheme to Determine the Shapes in Magnetic
Inductance Tomography System. G. Park1, K. Seo1 andD. Kim11. Electrical Engineering, Pusan National University,
Busan, South Korea

226

PROGRAMPROGRAM

GU-02. Domain Observation Technique for Nd-Fe-B Magnet in High
Magnetic Field by Image Processing Using Liquid Crystal
Modulator. M. Takezawa1, T. Shimada1, S. Kondo1, S. Mimura1,
Y. Morimoto1, T. Hidaka1 and J. Yamasaki11. Dept. of Appl. Sci.
for Integ. Syst. Engin., Kyushu Institute of Technology,
Kitakyushu, Japan

GV-04. Finite Element Analysis of Alternating Write Current Induced
Pole Tip Protrusion in Magnetic Recording Heads. S. Song1,
L. Wang1, V. Rudman1, D. Fang1, K. Stoev1, J. Wang1 and
B. Sun11. R&D, Western Digital Corporation, Fremont, CA, USA

GU-03. Focused Ion Beam created magnetic logic nano-structures
studied by using scanning ion microscopy with polarization
analysis (SIMPA). J. Li1 and C. Rau11. Department of Physics
and Astronomy, Rice Quantum Institute and Smalley Institute for
Nanoscience and Technology, Rice University, Houston, TX, USA
GU-04. Modal Spectrum of Permalloy Disks with and without Vortex
Core. F. Hoffmann1, G. Woltersdorf1, K. Perzlmaier1,
I. Neudecker1 and C.H. Back11. Physics, University ofRegensburg, Regensburg, Germany

227

GV-05. Effect of Electrostatic force on Slider-Lubricant Interaction.
B. Tan1,2, B. Liu1, Y. Ma1, M. Zhang1 and S. Ling21. SMI, Data
Storage Institute, Singapore, Singapore; 2. MAE, Nanyang
Technological University, Singapore, Singapore
GV-06. A Novel Slip Boundary Model for Lattice Boltzmann Method
in Nanoscale Air Bearing Simulation. D. Kim1, W. Kim2,
H. Kim1 and M.S. Jhon11. Depart of Chemical Engineering andData Storage Systems Center, Carnegie Mellon University,
Pittsburgh, PA, USA; 2. Samsung Corning Precision Glass, Asansi, South Korea

GU-05. Orthogonal spin-valve sensors for field detection.
B. Negulescu1, J. Borme1, J.M. Almeida1,2 and P.P. Freitas1,21.
INESC-MN, Lisbon, Portugal; 2. Instituto Superior Técnico,
Lisbon, Portugal

GV-07. Effects of Molecular Structure on the Conformation and
Dynamics of Perfluoropolyether Nanofilms. H. Chen1, Q. Guo1
and M.S. Jhon11. Depart of Chemical Engineering and Data
Storage Systems Center, Carnegie Mellon University, Pittsburgh,
PA, USA

GU-06. The three-dimensional micromagnetic domain structure of
MnAs thin films. R. Engel-Herbert1, D.M. Schaadt2 and
T. Hesjedal11. E&CE Dept., University of Waterloo, Waterloo,
ON, Canada; 2. Paul Drude Institute, Berlin, Germany

GV-08. Molecular Tribology of PFPE Lubricant on Magnetic
Recording Disks. H. Tani11. Media Engineering, HitachiGSTJAPAN, Odawara-shi, Kanagawa-ken, Kanagawa-ken, JapanTHURSDAYMORNING
8:00

GRAND BALLROOM

Session GV

HEAD-DISK INTERFACE AND TRIBOLOGY II(POSTER SESSION)

GV-09. The Tribological properties of the New Lubricant at the HeadDisk Interface. K. Sonoda1, D. Shirakawa2, T. Yamamoto1 and
J. Ito11. Hard Disk Drive Development, Toshiba Co., Ome, Tokyo,
Japan; 2. Chemicals Company, Asahi Glass Co., Ichihara, Chiba,
Japan
GV-10. A Study on Design and Synthesis of New Structure Lubricant
for Near Contact Recording. D. Shirakawa1, K. Sonoda2 andK. Ohnisi11. Chemical Campany, Asahi Glass Co., Goikaigan10
Ichihara-shi, Chiba, Japan; 2. Toshiba Corp., 2-9 Suehiro-Cho,
Ome, Tokyo, Japan

Peter Baumgart, Session Chair
GV-01. Effect of Heater Location and Size on Performance of Flyheight Adjustment. K. Miyake1, T. Shiramatsu1, M. Kurita1,
H. Tanaka1, M. Suk2 and S. Saegusa31. Hitachi Global Storage
Technologies Japan, Ltd., Odawara-shi, Kanagawa-ken, Japan; 2.
Hitachi Global StarageTechnologies Inc., San Jose, CA, USA; 3.
Collaborative Research Center, Hiroshima University, HigashiHiroshimashi-shi, Hiroshima-ken, Japan
GV-02. High selectivity etching for texture fabrication on air bearing
surface. M. Zhang1, B. Liu1 and Y. Man11. SMI, Data Storage
Institute, Singapore, Singapore

THURSDAYMORNING
8:00

GRAND BALLROOM

Session GW

FERRITES, GARNETS, AND MICROWAVEMATERIALS II(POSTER SESSION)
Jiro Yamasaki, Session Chair

GV-03. Approximate Simulation on Flying Performance of Thermally
Protruded Slider. H. Li1, S. Yoshida1, B. Liu2, W. Zhou2, S. Yu2
and W. Hua21. Storage Mechanics Laboratory, Hitachi Asia Ltd,Singapore, Singapore; 2. Data Storage Institute, singapore,
Singapore

GW-01. Microwave permeability of amorphous ferromagnetic layers
obliquely deposited. S. Dubourg1, E. Estrade2, Y. Compère1,
O. Bodin1, A. Moreau1 and J. Longuet21. LMMH, CEA, Monts,
France; 2. LMC, CEA, Monts, France

228

PROGRAMPROGRAM

229

GW-02. Evolution of magnetic structure in magnetite thin films byvanadium doping. K. Kim2, J. Park1, S. Choi2, H. Lee2 andY. Park21. Depart. of MSE, Univ. of Incheon, Incheon, South
Korea; 2. Dept. of Physics, Konkuk University, Seoul, South
Korea

GW-10. The ionic states of nano crystalline NiFe2O4 synthesized bylevitational gas condensation (LGC) method using micron
powder feeding system. Y. Uhm1, B. Han1, M. Lee1 and
C. Rhee11. Nuclear Nano Materials Development Lab., Atomic
energy research institute (KAERI), Daejeon, South Korea

GW-03. Development of Low Loss Mn-Zn Ferrites working at
Frequency Higher than 500kHz. Y. Liu1,2 and S. He21. Physics,
China Jiliang University, Hangzhou, Zhejiang, China; 2.
Workstation for Post-Doctor Scientific Research, DMEGC,
Hangzhou, Zhejiang, China

GW-11. Magneto-optical study of Co2+ÄFe2+ electronic transition in
CoxFe1-xFe2O4. K.L. Stokes1, B.L. Scott1 and D.A. Smith11.
Dept. of Physics, University of New Orleans, New Orleans, LA,USA

GW-04. First-principle Calculation of the Magnetic Anisotropy in the
Artificial Manganese Ferrite Films. X. Zuo1, A. Yang2,
W. Duan3, J. Wu3, C. Vittoria2 and V.G. Harris21. College ofInformation Technical Science, Nankai University, Tianjin,
China; 2. Department of Electrical and Computer Engineering,Northeastern University, Boston, MA, USA; 3. Physics
Department, Tsinghua University, Beijing, China

GW-12. Growth and characterization of chromium substituted
barium ferrite single crystals for high frequency microwave
applications. J. Jalli1, Y.K. Hong2, S.H. Gee1, C.C. Juan1 and
I.T. Nam3,11. Materials Science and Engineering, University of
Idaho, Moscow, ID, USA; 2. Electrical and Computer
Engineering, University of Alabama, Tuscaloosa, AL, USA; 3.
Advanced Materials Engineering, Kangwon National University,
Chooncheon, South Korea

GW-05. The Magnetic Properties of Stained and Relaxed Fe3-xMgxO4
Ferrite Films on MgO(001) and SrTiO3(001) by Molecular
Beam Epitaxy. D.S. Lee1,2, J.S. Wang1, D.K. Modak1,
C.L. Chang3 and G. Chern11. Physics, National Chung Cheng
University, Chia-Yi, Taiwan; 2. Electrical Engineering, Da-Yeh
University, Chunghua, Taiwan; 3. Physics, Tamkang University,
Tamsui, Taiwan
GW-06. NON-RESONANT MICROWAVE ABSORPTION AND
ANISOTROPY FIELD IN Ni0.35Zn0.65Fe2O4 FERRITE.
R. Valenzuela1, G. Alvarez1, H. Montiel2, M. Gutierrez3 andR. Zamorano31. Materials Science, National University of
Mexico, Mexico City, D.F., Mexico; 2. Applied Sciences andTechnology, National University of Mexico, Mexico City, DF,
Mexico; 3. Materials Science ESFM, National Polytechnic
Institute, Mexico City, DF, Mexico
GW-07. MISORIENTATIONS IN [0 0 1] MAGNETITE THINFILMS STUDIED BY ELECTRON BACKSCATTERDIFFRACTION AND MAGNETIC FORCE MICROSCOPY.
A.D. Koblischka-Veneva1, M.R. Koblischka2, J. Wei2, Y. Zhou3,
S. Murphy3, F. Muecklich1, H. Uwe2 and I.V. Shvets31. Institutefor Functional Materials, University of the Saarland,
Saarbruecken, Saarland, Germany; 2. Institue of Experimental
Physics, University of the Saarland, Saarbruecken, Germany; 3.
SFI Nanoscience Laboratory, Trinity College, Dublin, Ireland

GW-13. Epitaxial growth of PbFe12O19 thin film by alternate
deposition of 6Fe2O3 and PbO layers. Y. He1, A. Geiler1,
F. Yang1, V.G. Harris1 and C. Vittoria11. Electrical and Computer
Engineering, Northeastern University, Boston, MA, USA

GW-14. Distribution of transition-metal ions and the related magnetic
structure in Mn-doped cobalt ferrite thin films. K. Kim2,
Y. Park2, S. Choi2, H. Lee2 and J. Park11. Depart. of MSE, Univ.
of Incheon, Incheon, South Korea; 2. Dept. of Physics, Konkuk
University, Seoul, South Korea

GW-15. The Low Temperature Co-fired Ceramics materials for RF
and microwave applications components. R.M. Sarabu11.
Department of Physics, Osmania University, Hyderabad, Andhra
Pradesh, India

THURSDAYMORNING
8:00

GRAND BALLROOM

Session GX
GW-08. Effect of growth temperature on the magnetic, microwave,
and cation inversion properties on NiFe2O4 thin films
deposited by pulsed laser ablation deposition. C. Chinnasamy1,
S.D. Yoon1, A. Yang1, A.K. Baraskar1, C. Vittoria1 and
V.G. Harris11. Electrical&Computer Engineering, Northeastern
university, Boston, MA, USA
GW-09. Low-loss barium ferrite quasi-single-crystals for microwave
application. Y. Chen1, T. Sakai1, T. Chen1, C. Vittoria1 and
V.G. Harris11. Electrical and Computer Engineering,Northeastern University, Boston, MA, USA

NEW MAGNETIC MATERIALS I(POSTER SESSION)
Alexander Dobin, Session Chair
GX-01. Ab-initio Calculation of Local Exchange Interactions in
Magnetic Anatase. X. Zuo1, S. Yoon2, C. Vittoria2 and
V.G. Harris21. College of Information Technical Science, Nankai
University, Tianjin, Tianjin, China; 2. Department of Electricaland Computer Engineering, Northeastern University, Boston,
MA, USA230

PROGRAMPROGRAM

GX-02. Magnetic structure and magnetic property of an Fe-Pd-Rh
alloy. Y. Lin1, H.T. Lee2 and S.U. Jen31. Depart. of Mold and Die
Engin., National Kaohsiung University of Applied Sciences,
Kaohsiung, Taiwan; 2. Depart. of Mechanical Engin., National
Cheng Kung University, Tainan, Taiwan; 3. Institute of Physics,
Academia Sinica, Taipei, Taiwan

GX-12. Structure and magnetic properties of Co2NiGa alloys.
X. Dai1,2, G. Liu2, Y. Li1, J. Qu1, J. Li1, J. Chen2 and G. Wu21.
School of material sciences and engineering, Hebei university oftechnology, Tianjin, China; 2. State Key Laboratory for
Magnetism, Institute of Physics, Chinese Academy of Sciences,
Beijing, China

GX-03. High pressure high temperature (HPHT) synthesis andmagnetic properties of ordered perovskite Sr2Cu(Re0.69xWxCa0.31)O6(0 ≤ x ≤ 0.6). S. Balamurugan1, M. Isobe1 andE. Takayama-Muromachi11. Advanced Nano Materials
Laboratory, National Institute for Materials Science (NIMS),
Tsukuba, Ibaraki, Japan

GX-13. One-pot sonochemical synthesis of Fe1-xCuxCr2S4
chalcospinels. M.L. Rao1,21. chemistry, Indian Institute ofTechnology Kanpur, Kanpur, India; 2. Materials Reeach Labs,
Pennsylvania State university, State College, PA, USA; 3. Physics,
University of Maryland, College Park, MD, USA

GX-04. Structure and Magnetic Properties of EuMnxGa3-x. Y. Guo1,2,
Y. Grin1 and W. Schnelle11. Max Planck Institute for theChemical Physics of Solids, Dresden, Germany; 2. Division of
Functional Materials, Central Iron & Steel Research Institute,
Beijing, China
GX-05. High-temperature field-induced activation of ferromagnetismin Ce1-xNixO2 A. Thurber1 and A. Punnoose11. Physics, Boise
State University, Boise, ID, USA
GX-06. Band structure calculations, structures, magnetic andtransport properties of doped two dimensional Sr2CoO4
Q. Yao1, X. Wang1, S. Dou1 and Z. Lin21. ISEM, University of
Wollongong, Wollongong, NSW, Australia; 2. Faculty ofEngineering, University of Technology, Sydney, Sydney, NSW,
Australia
GX-07. Magnetic anisotropy in single crystalline LiFePO4. D. Chen1,
X. Wang1, Y. Hu2, C. Lin2, S. Dou1 and Q. Yao11. Institute forSuperconducting and Electronic Materials, Wollongong, NSW,
Australia; 2. Max Planck Institute for Solid State Research,
Heisenbergstr. 1, Stuttgart, Germany
GX-08. Exceptional magnetic properties of Fe substituted nickel
chromite. S. Park1 and C. Kim11. Department of Physics,
Kookmin University, Seoul, South Korea
GX-09. Effect of application of high magnetic field on the
microstructure of Fe, Ni substituted LDH clay for a magnetic
application. H. Murase1, H. Yasuda2 and A. Nakahira11. Osaka
Pref Univ, Osaka, Japan; 2. Osaka Univ, Osaka, Japan231

GX-14. OBSERVATION OF EXCHANGE BIAS EFFECT IN
NANOGRANULATED RuSr2GdCu2O8/La0.67Sr0.33MnO3COMPOSITES. J. Roa-Rojas1, M.A. Flórez Torrez1 and
D.A. Landínez Téllez11. Grupo de Física de Nuevos Materiales,
Departamento de Física, Universidad Nacional de Colombia,
Bogotá, DC, Colombia
GX-15. Characterization of Mn-doped 3C-SiC prepared by ion
implantation. F. Takano1, W. Wang1, S. Hishiki2, T. Ohshima2,
H. Ofuchi3 and H. Akinaga11. Nanotechnology Research Institute(NRI), National Institute of Advanced Industrial Science andTechnology (AIST), Tsukuba, Ibaraki, Japan; 2. Quantum Beam
Science Directorate, Japan Atomic Energy Agency (JAEA),
Takasaki, Gunma, Japan; 3. Japan Synchrotron Radiation
Research Institute (JASRI), Sayo-gun, Gyogo, Japan
GX-16. Magnetothermopower in Nd1-xEuxNiO3 compounds.
V.B. Barbeta1, R.F. Jardim2, M.T. Escote3 and N.R. Dilley41.
Departamento de Física, Centro Universitário da FEI, SãoBernardo do Campo, São Paulo, Brazil; 2. Departamento deFísica dos Materiais e Mecânica, Universidade de São Paulo,São Paulo, São Paulo, Brazil; 3. Centro de Ciências Naturais e
Humanas, Universidade Federal do ABC, Santo André, SãoPaulo, Brazil; 4. Quantum Design, Inc., San Diego, CA, USA

THURSDAYAFTERNOON
2:00

HARBORSIDE C

Session HA

SPIN TORQUE: METALLIC SYSTEMS
GX-10. Converse Magnetoelectric Effect in Three-Phase Compositesof Piezoceramic, Metal-Cap, and Magnet. W. Wong1, Y. Jia1,2,
S. Or1, H. Chan1 and H. Luo21. Department of Applied Physics,
The Hong Kong Polytechnic University, Kowloon, Hong Kong; 2.
Shanghai Institute of Ceramics, Chinese Academy of Sciences,
Shanghai 201800, China
GX-11. Magnetic domain structures in discontinuous layers observed
by magnetic force microscopy. Y.G. Pogorelov1, D. Kozodaev2,
J.A. Santos1, G.N. Kakazei3 and J.B. Sousa11. Department of
Physics, University of Porto, Porto, Portugal; 2. NTI-Europe,
Appeldoorn, Netherlands; 3. Institute of Magnetism, Kiev,
UkraineMaxim Tsoi, Session Chair
2:00
HA-01. Time-Resolved Imaging of Spin Transfer Switching: Beyond
the Macrospin Concept. (Invited) Y. Acremann1, J. Strachan1,
V. Chembrolu1, A. Tulapurkar1, X. Yu1, T. Tyliszczak3,
S.D. Andrews2, J.A. Katine4, M.A. Carey4, B.M. Clemens2,
H.C. Siegmann1 and J. Stohr11. Stanford Linear Accelerator
Center, Menlo Park, CA, USA; 2. Stanford University, Stanford,
CA, USA; 3. Lawrence Berkeley National Laboratory, Berkeley,
CA, USA; 4. Hitachi, Almaden, CA, USA

232

PROGRAMPROGRAM

2:36

3:36

HA-02. Fast Pulse Measurements and Temperature Variation of
Enhanced Magnetic Damping of Spin-Transfer Excitation.
E. Ryan1, A.G. F. Garcia1, P.M. Braganca1, N.C. Emley1,
J.C. Read1, E. Tan1, J.A. Katine3, D.C. Ralph2 andR.A. Buhrman11. Applied Physics, Cornell University, Ithaca, NY,
USA; 2. Physics, Cornell University, Ithaca, NY, USA; 3. Hitachi
Global Storage Technologies, San Jose, CA, USA

HA-07. Observation of Current Induced Switching in a Dual CPPGMR Spin Valve. D. Shin1 and S.X. Wang11. Materials Scienceand Engineering, Stanford University, Stanford, CA, USA

2:48

HA-03. Self-amplification of eigen modes in single layer pillars.
A. Parge1, M. Scherff1, M. Seibt1, D. Berkov2, J.S. Moodera3 and
M.G. Muenzenberg11. IV. Phys. Institute, Göttingen University,
Göttingen, Germany; 2. Innovent, Jena, Germany; 3. Francis
Bitter Magnet Laboratory, MIT, Cambridge, MA, USA

3:00

HA-04. Spin current induced excitations for the ‘perpendicularpolarizer-planar free layer’ configuration. D. Houssameddine1,
B. Delaët2, U. Ebels1, B. Rodmacq1, F. Ponthenier2, C. Thirion1,
M. Brunet3,2, M. Cyrille2, O. Redon2 and B. Dieny11. SPINTECLaboratory URA 2512 CEA/CNRS, Grenoble, France; 2. CEA
Grenoble, LETI/DIHS/LIMN, Grenoble, France; 3. LAAS CNRS,
Toulouse, France

3:12

HA-05. Influence of field orientation on current-induced
magnetization reversal in nanopillars with perpendicularanisotropy. Y. Henry4, S. Mangin1,2, D. Ravelosona1,3, J. Katine1
and E. Fullerton11. San Jose Research Center, Hitachi Global
Storage Technologies, San Jose, CA, USA; 2. Laboratoire dePhysique de Matériaux, UMR CNRS 7556, U.H.P-Nancy I,
Vandoeuvre, France; 3. Institut d’Electronique Fondamentale,
UMR CNRS 8622, U. Paris Sud, Orsay, France; 4. Institut dePhysique et Chimie des Matériaux de Strasbourg-GEMM,
Strasbourg, France

233

3:48

HA-08. Spin Transfer Torque Switching with Precessional Motion
from a Hard Axis Magnetic Field. K. Ito1, T. Devolder2,C. Chappert2, M.J. Carey3 and J.A. Katine31. Hitachi Cambridge
Laboratory, Hitachi Europe, Ltd., Cambridge, United Kingdom;
2. Institure d’ Electronique Fondamentale, Universite Paris Sud,
Orsay, France; 3. San Jose Research Center, Hitachi GST, San
Jose, CA, USA

4:00

HA-09. Switching speed distribution of spin-torque-induced magnetic
reversal. J. He1, J.Z. Sun2 and S. Zhang11. Department of Physics
and Astronomy, University of Missouri Columbia, Columbia, MO,
USA; 2. IBM T. J. Watson Research Center, P. O. Box 218,
Yorktown Heights, NY, USA

4:12

HA-10. Reduction of extrinsic damping and switching field instability
in Py/Cu/Py nanopillar spin valves. O. Ozatay1, K.W. Tan1,
P.M. Braganca1, E.M. Ryan1, J.C. Read1, A.K. Mkhoyan1,
M.G. Thomas1, K.V. Thadani1, J.C. Sankey1, J. Silcox1,
D.C. Ralph1 and R.A. Buhrman11. Applied Physics, Cornell
University, Ithaca, NY, USA

4:24

HA-11. Thermal effects on the critical current of spin torqueswitching in nanopillars. M.L. Schneider1, M.R. Pufall1,
W.H. Rippard1, S.E. Russek1 and J.A. Katine21. National Instituteof Standards and Technology, Boulder, CO, USA; 2. Hitachi San
Jose Research Center, San Jose, CA, USA

4:36
3:24

HA-06. Size Dependence of Spin Torque Transfer in Magnetic Nano
Structure with Perpendicular Anisotropy. H. Meng1 andJ. Wang11. Electrical Engineering, University of Minnesota,
Minneapolis, MN, USA

HA-12. Large Magnetoresistance Induced by Spin Transfer Torques
with a Magnetic Field. T. Chen1, S. Huang1, C.L. Chien1 and
M.D. Stiles21. Physics and Astronomy, the Johns Hopkins
University, Baltimore, MD, USA; 2. Electron Physics Group,
National Institute of Standards and Technology, Gaithersburg,
MD, USA234

PROGRAMTHURSDAYAFTERNOON
2:00

PROGRAM

HARBORSIDE A

Session HB

MULTIFERROICS: THIN FILMS ANDCOMPOSITES
Michel Kenzelmann, Session Chair
2:00

HB-01. Spintronics with multiferroics. (Invited) A. Barthélémy1,
H. Béa1, M. Gajek1, M. Bibes2, S. Fusil1, K. Bouzehouane1,
B. Warrot-Fonrose4, S. Chérifi5, G. Herranz1, E. Jacquet1,
C. Deranlot1, J. Fontcuberta3 and A. Fert11. Unité Mixte dePhysique CNRS/Thales, Palaiseau, France; 2. IEF, Orsay, France;
3. ICMAB, Barcelone, Spain; 4. CEMES, Toulouse, France; 5.
Laboratoire Louis Néel, Grenoble, France

2:36

HB-02. Electric Field-Induced Magnetization Reduction in
Multiferroic Pb(Zr, Ti)O3-LaMnO3 Composites. M. Gomi1,
N. Nishimura1 and T. Yokota11. Materials Science andEngineering, Nagoya Institute of Technology, Nagoya, Japan

2:48

HB-03. Magnetism and magnetoelectric properties of multiferroic
HoMnO3 thin films. J. Kim1, K. Dörr1, K. Nenkov1 and
L. Schultz11. Institute for Metallic Materials, IFW-Dresden,
Dresden, Germany

3:00

HB-04. Magnetic Frustration Behavior of Ferroelectric Ferromagnet,
YbMnO3 Epitaxial Films. N. Fujimura1, T. Yoshimura1 and
T. Takahashi11. Graduate School of Eng., Osaka Prefecture
University, Sakai, Osaka, Japan

3:12

HB-05. Epitaxial Fe3O4 on SrTiO3 characterized by transmission
electron microscopy. J. Zheng1,2, G.E. Sterbinsky2 and
B.W. Wessels21. NUANCE, Northwestern University, Evanston,IL, USA; 2. MSE, Northwestern University, Evanston, IL, USA

235

3:24

HB-06. Nanoscale Observation of Order Parameter Coupling in
Multiferroic BiFeO3 Films. K. Lee1,3, M. Barry1, Y. Chu1,
A. Scholl2, T. Zhao1, M. Cruz1,4, P. Yang1, S. Yang1, L. Martin1,
P. Yu1, A. Doran2, S. Baik3 and R. Ramesh11. Department of
Physics and Department of Materials Science and Engineering,
UC Berkeley, Berkeley, CA, USA; 2. Advanced Light Source,
Lawrence Berkeley Nantional Laboratory, Berkeley, CA, USA; 3.
Department of Materials Science and Engineering, Pohang
University of Science and Technology, Pohang, South Korea; 4.
Centro de Ciencias de la Material Condensada - UNAM,
Ensenada, Mexico

3:36

HB-07. Electric-field control of exchange bias in multiferroic epitaxial
heterostructures. J. Fontcuberta1, V. Laukhin2,1, V. Skumryev2,3,
X. Martí1, D. Hrabrovsky1, F. Sánchez1, M.V. García-Cuenca4,
C. Ferrater4, M. Varela4, U. Lüders5 and J.F. Bobo51. Institut deCiència de Materials de Barcelona, Bellaterra, Spain; 2. Institut
Català de Recerca i Estudis Avançats (ICREA), Barcelona, Spain;
3. Dept. Física, Universitat Autònoma de Barcelona, Bellaterra,
Spain; 4. Física Aplicada i Òptica, Universitat de Barcelona,
Barcelona, Spain; 5. LNMH, ONERA-CNRS, Toulouse, France

3:48

HB-08. Exchange bias between ferromagnetic metals and multiferroic
BiFeO3, LuMnO3, and TbMnO3 M. Murakami1, S. Fujino1,
J. Hattrick-Simpers1, S.H. Lim1, L.G. Salamanca-Riba1,
S.E. Lofland2, S.W. Cheong3, D. Kundaliya4, S.B. Ogale4,
T. Venkatesan4, J. Higgins4, M. Wuttig1 and I. Takeuchi1,41.
Materials Science and Engieering, University of Maryland,College Park, MD, USA; 2. Department of Physics andAstronomy, Rowan University, Glassboro, NJ, USA; 3.
Department of Physics and Astronomy, Rutgers University,
Piscataway, NJ, USA; 4. Center for Superconductivity Research,
University of Maryland, College Park, MD, USA

4:00

HB-09. TUNNEL MAGNETORESISTANCE AND EXCHANGE
BIAS WITH MULTIFERROIC BiFeO3 EPITAXIAL THINFILMS. H. Béa1, S. Fusil1, M. Bibes2, S. Cherifi3, A. Locatelli4,
B. Warot-Fonrose5, G. Herranz1, C. Deranlot1, E. Jacquet1,
K. Bouzehouane1 and A. Barthélémy11. Unité Mixte de Physique
CNRS/THALES (UMR 137), Palaiseau, France; 2. Institutd’Electronique Fondamentale, Université Paris-Sud, Orsay,
France; 3. Laboratoire Louis Néel, CNRS, Grenoble, France; 4.
Sincrotrone Trieste, Trieste, Italy; 5. CEMES-CNRS, Toulouse,
France

236

PROGRAMPROGRAM

237

4:12

2:12

HB-10. FERROMAGNETIC RESONANCE IN MULTI-FERROIC
NICKEL FERRITE NANO-PILLAR - BISMUTH IRONOXIDE MATRIX FILMS. K. Kim11. Physics, Colorado State
University, Fort Collins, CO, USA; 2. Slovak University ofTechnology, Bratislava, Slovakia; 3. Science and Engineering,
University of California at Berkeley, Berkeley, CA, USA

HC-02. Novel chemical synthesis of Co nanoelements with different
shapes. Y. Sui1, Y. Zhao1, J. Zhang1, S.S. Jaswal1, X. Li1 and
D.J. Sellmyer11. Department of Physics and Astronomy and
NCMN, University of Nebraska-Lincoln, Lincoln, NE, USA

2:24
4:24

HB-11. Tailoring properties of oxide superlattices for theirmultiferroism. W. Prellier1, M.P. Singh1, M.K. Singh1,
L. Méchin2, C. Simon1 and B. Raveau11. ENSICAEN, CNRS,
Caen, France; 2. GREYC, ENSICAEN/université de Caen, Caen,
FranceHC-03. Investigating the Role of Protein Cage Architecture on the
Magnetic Properties of Encapsulated Materials. M.T. Klem1,2,
K. Gilmore3,2, K. Flanagan3,2, M. Young4,2, Y.U. Idzerda3,2 and
T. Douglas1,21. Chemistry & Biochemistry, Montana State
University, Bozeman, MT, USA; 2. Center for Bioinspired
Nanomaterials, Montana State University, Bozeman, MT, USA; 3.
Physics, Montana State University, Bozeman, MT, USA; 4. Plant
Sciences, Montana State University, Bozeman, MT, USA

4:36
2:36
HB-12. Multiferoic Behavior in Epitaxial PbVO3 Films. L.W. Martin1,2,
A. Kumar3, S. Denev3, Q. Zhan1,2, M. Chi4, J.B. Kortright2,
J. Kreisel5, N. Browning4,6, V. Gopalan3, Y. Suzuki1,2 andR. Ramesh1,21. Materials Science and Engineering, University ofCalifornia, Berkeley, Berkeley, CA, USA; 2. Materials Science
Division, Lawrence Berkeley National Laboratory, Berkeley, CA,
USA; 3. Materials Science and Engineering, Pennsylvania State
University, State College, PA, USA; 4. Chemical Engineering andMaterials Science, University of California, Davis, Davis, CA,
USA; 5. Laboratoire des Matériaux et du Génie Physique, Institut
National Polytechnique de Grenoble, Grenoble, France; 6.
National Center for Electron Microscopy, Lawrence Berkeley
National Laboratory, Berkeley, CA, USA

THURSDAYAFTERNOON
2:00

HARBORSIDE B

HC-04. Novel Synthesis of Carbon Encapsulated L10 FePt
Nanoparticles. N. Cailuo1, C. Yu1, K.K. Yu1, W. Oduro1,
B. Thiebaut2, P. Bishop2, C. Lo3 and S. Tsang11. School ofChemistry, University of Reading, Whiteknights, Reading, United
Kingdom; 2. Johnson Matthey Technology Centre, Sonning
Common, Reading, United Kingdom; 3. Center for NDE, Iowa
State University, Ames, IA, USA

2:48

HC-05. The effect of electrochemical Li+ insertion on the magnetic
properties of Fe3O4 nanoparticles. V. Sivakumar1, C. Ross1,
S. Kumar2 and S-H. Yang21. Materials Science and Engineering,
Massachusetts Institute of Technology, Cambridge, MA, USA; 2.
Mechanical Engineering, Massachusetts Institute of Technology,
Cambridge, MA, USA

3:00

Session HC

NANOPARTICLE SYNTHESIS III
Axel Hoffmann, Session Chair

HC-06. Cubic and spherical FeCo nanoparticles with narrow size
distribution. J. Bai1, Y. Xu1 and J. Wang11. Electrical andComputer Engineering, University of Minnesota, Minneapolis,
MN, USA

2:00
3:12
HC-01. Particle Size and Shape of Co Nanoparticles Fabricated by a
Cluster Gun. M.J. Bonder1, P. Liu1, Y. Huang1,
G.C. Hadjipanayis1 and D.G. Vlachos21. Department of Physics
and Astronomy, University of Delaware, Newark, DE, USA; 2.
Department of Chemical Engineering, University of Delaware,
Newark, DE, USA

HC-07. Structural and magnetic properties of chemical synthesized
FePt Nanoparticles. M. Delalande1, P. Marcoux2, P. Reiss2 and
Y. Samson11. Nanostructure and Magnetism, CEA Grenoble,
Grenoble, France; 2. SPrAM, CEA Grenoble, Grenoble, France

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PROGRAMPROGRAM

3:24

4:36

HC-08. Synthesis and Characterization of Magnetic Chains of
Nanospheres. R.V. Ramanujan1 and A.K. Srivastava11. School ofMaterials Science and Engineering, Nanyang Technological
University, Singapore, Singapore

HC-14. The Effects of Surface Coating on the Structural andMagnetic Properties of CoAg Nanoparticles. R.F. Evans1,
F. Dorfbauer2, O. Myrasov3, O. Chubykalo-Fesenko4, T. Shrefl5
and R.W. Chantrell11. Department of Physics, University Of York,York, England, United Kingdom; 2. Institute of Solid State
Physics, Vienna University of Technology, Vienna, Austria; 3.
Seagate Research, Pittsburgh, PA, USA; 4. Instituto de Ciencia deMateriales de Madrid, Madrid, Spain; 5. Department ofEngineering Materials, University of Sheffield, Sheffield,
England, United Kingdom

3:36

HC-09. Synthesis and Characterization of Magnetic II-VI
Nanoparticles. N.A. Tracy1, Y. Xu1, K. Meehan1, G. Wang2 and
G.T. Yee21. Electrical and Computer Engineering, Virginia
Polytechnic Institute and State University, Blacksburg, VA, USA;
2. Chemistry, Virginia Polytechnic Institute and State University,
Blacksburg, VA, USA

THURSDAYAFTERNOON
2:00

239

HARBORSIDE D

3:48

Session HD
HC-10. Synthesis and Characterization of Fe/Au Nanoparticles.
S.N. Ahmad1, M. Donny2, S.G. Rao1, S. Geoff2 and
S.A. Shaheen11. Physics, Center for Materials Research andTechnology, Florida State University, Tallahassee, FL, USA; 2.
Chemistry, Florida State University, Tallahassee, FL, USA

4:00

HC-11. Nuclei Concentration and Size in the A1 to L10 Phase
Transformation of FePt Nanoparticles. Y. Ding1 and
S.A. Majetich11. Department of Physics, Carnegie Mellon
University, Pittsburgh, PA, USA

4:12

HC-12. Exchange Bias in Co-CoO Core Shell Nanoparticles.
M. Aronson1, S. Inderhees1, G. Strycker1, J. Borchers2 andY. Qiu21. Physics, University of Michigan, Ann Arbor, MI, USA;2. NCNR, National Institute for Standards and Technology,
Gaithersburg, MD, USA

HEAD MATERIALS, SOFT MAGNETIC FILMS,
AND DOMAINS
Thomas Clinton, Session Chair
2:00

HD-01. Ab-initio studies of magnetic properties of CoFePd alloys andmultilayers. M. Chshiev1 and W. Butler11. MINT Center,
University of Alabama, Tuscaloosa, AL, USA
2:12

HD-02. High Moment FeCo Films with High Anisotropy for
Perpendicular Magnetic Recording. B. Ocker1, K. Schuller1,
J. Langer1 and W. Maass11. Semiconductor Equipment / TMRMRAM, Singulus Technologies AG, Kahl, Germany
2:24

HD-03. MAGNETIZATION PROCESSES IN MAGNETIC
MICROWIRES. R. Varga1 and Y. Kostyk11. Institute of Physics,
Faculty of Sciences, UPJS, Kosice, Slovakia

4:24
2:36
HC-13. Electronic and magnetic structure of L10-FePt nanoparticle
embedded in FePt random alloy. Y. Wang1, G. Stocks2,
A. Rusanu2, D.M. Nicholson2, M. Eisenbach2, Q. Zhang3 and
P. Liu31. Pittsburgh Supercomputing Center, Carnegie Mellon
University, Pittsburgh, PA, USA; 2. Oak Ridge National
Laboratory, Oak Ridge, TN, USA; 3. Department of Physics,
University of Texas in Arlington, Arlington, TX, USA

HD-04. Spin reorientation transitions in perpendicularly exchangecoupled, ferromagnetic, ultra-thin films studied using element
specific imaging. Y. CHUN1, H. Ohldag2 and K.M. Krishnan11.
Materials Science and Engineering, Uinversity of Washington,
Seattle, WA, USA; 2. Advanced Light Source, Berkeley National
Laboratory, Berkeley, CA, USA

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2:48

4:00

HD-05. MICROWAVE ASSISTED SWITCHING IN Ni81Fe19
ELEMENTS. B. Leven1, P. Martín Pimentel1, H.T. Nembach1,
S.J. Hermsdörfer1, S.O. Demokritov2 and B. Hillebrands11.
Fachbereich Physik and Forschungsschwerpunkt MINAS,
Technische Universität Kaiserslautern, Kaiserslautern, Germany;
2. Institut für Angewandte Physik, Westfälische WilhelmsUniversität Münster, Münster, Germany

HD-12. Low-noise crystalline soft underlayer for CoCrPt:SiO2
perpendicular recording media. J. Shi1, S. Piramanayagam1,
J. Zhao1, . Mah1 and C. Ong11. Spintronics, Media, and Interface,
Data Storage Institute, singapore, Singapore

3:00

HD-13. Magnetic Nanocrystalline Films Softened by Obliquely
Accelerating Fe Nanoparticles. D. Meyer1, M. Faheem1,
M. Campanell1, J. Antony1, A. Sharma1 and Y. Qiang11. Physics,
University of Idaho, Moscow, ID, USA

HD-06. Magnetic Switching Properties of Mesoscopic Permalloy Discs
Prepared by Nanosphere Lithography. J. Shang1, F. Zhu1 and
C. Chien11. Physics and Astronomy, Johns Hopkins University,
Baltimore, MD, USA
HD-07. WITHDRAWN
3:12

HD-08. Domain wall mobility and Gilbert damping in magnetic
nanostructures. A. Mougin1, M. Cormier1, J. Adam1,
P. Metaxas1,2, J. Ferré1 and R. Stamps21. UMR CNRS 8502,
Laboratoire de Physique des Solides, Orsay, France; 2. School ofPhysics, University of Western Australia, Crawley 6009, WA,
Australia

241

4:12

4:24

HD-14. Amorphous and nanocrystalline iron nitride thin films
prepared by reactive ion-beam sputtering. R. Dubey1,
A. Gupta1 and J. Pivin21. Indore Center, UGC-DAE Consortiumfor Scientific Research, Indore, M.P., India; 2. Bätiment 108,CSNSM-IN2P3, 91405 Orsay Campus, France
4:36

HD-15. FUNDAMENTAL MAGNETIC PROPERTIES OF SOFT
IRON-TITANIUM-NITROGEN THIN FILMS. J. Das1,
S.S. Kalarickal1, K.S. Kim1 and C.E. Patton11. Physics, Colorado
State University, Fort Collins, CO, USA

3:24

HD-09. Magnetic domains and magnetization reversal of a single Ni
nanowire. W. Guan1, J. Zhang1, T. Shen1, P. Fischer2, S. Morton2and L. Qin11. Institute for Materials Research, University ofSalford, Salford, United Kingdom; 2. Advanced Light Source,
Lawrence Berkeley National Lab, Berkeley, CA, USA

THURSDAYAFTERNOON
2:00

HARBORSIDE E

Session HE
3:36

LOW DIMENSIONAL SYSTEMS/SPIN
GLASSES AND FRUSTRATION

HD-10. The short range order (SRO) of amorphous Co40Fe40B20
and its relation to induced magnetic anisotropy. D. Kirk1,
C. Lang1, D. Cockayne1, J. Schmalhorst2, G. Reiss2 andA. Kohn11. Dept. of Materials, University of Oxford, Parks Road,
Oxford. OX1 3BH, United Kingdom; 2. Department of Physics,
Thin Films and Nanostructures, Bielefeld University, P.O. Box
100131, 33501 Bielefeld, Germany

Collin Broholm, Session Chair

3:48

2:00

HE-01. Disordered Spin Ground State in a S=1 Triangular Lattice.
(Invited) C. Stock1, S. Jonas1, C. Broholm1, S. Nakatsuji2,
Y. Nambu2 and H. Tonomura21. Johns Hopkins University,
Baltimore, MD, USA; 2. Kyoto University, Kyoto, Japan
2:36

HD-11. Microstructure evolution of NiFe/Cu composite wires
deposited by electroplating with an applied field. J. Yi1, X. Li1,
J. Yin2, S. Thongmee2, J. Ding2 and H. Seet11. MechanicalEngineering, National University of Singapore, Singapore,
Singapore; 2. Materials Science and Engineering, National
University of Singapore, Singapore, Singapore

HE-02. Topological and energetic aspects of the random-field Isingmodel. G. Bertotti1, V. Basso1, P. Bortolotti1,2 and A. Magni11.
INRIM, Torino, Italy; 2. Physics Dept., Politecnico di Torino,
Torino, Italy

242

PROGRAMPROGRAM

2:48

4:24

HE-03. Magnetic Properties of a Metal-organic Cu Dimer System,[Cu(IPA)(bpy)](H2O)3 T. Yuen1, C. Lin1, L. Pan2 and J. Li21.
Physics, Temple University, Philadelphia, PA, USA; 2. Chemistry& Chemical Biology, Rutgers University, Piscataway, NJ, USA

3:00

HE-04. Spin-glass ordering in the layered III-VI Diluted Magnetic
Semiconductor Ga1-xMnxS. T.M. Pekarek1, E.M. Watson1,
J. Garner1, P.M. Shand2, I. Miotkowski3 and A.K. Ramdas31.
Chemistry and Physics, Univ. of N. Florida, Jacksonville, FL,
USA; 2. Physics, Univ. of N. Iowa, Cedar Falls, IA, USA; 3.
Physics, Purdue Univ., W. Lafayette, IN, USA

3:12

243

HE-09. Structures, magnetism, and giant magnetoresistance in two
dimensional Sr2CoO4 and three dimensional SrCoO3 dopedwith rare earth elements. X. Wang1, Q. Yao1, M. James2,
E. Takayama-Muromachi3 and R. Liu41. Institute forSuperconducting and Electronic Materials, University of
Wollongong, Wollongong, NSW, Australia; 2. Brag Institute,
ANSTO, Sydney, NSW, Australia; 3. 2Superconducting Materials
Center, Institute for Materials Science, Tsukuba, Japan; 4.
Chemistry Department,, National Taiwan University, Taibei,
TaiwanTHURSDAYAFTERNOON
2:00

ESSEX

Session HF

HYPERTHERMIA AND MAGNETIC FLUIDS
Mohindar Seehra, Session Chair
HE-05. Atom-Resolved Spin Excitation Spectroscopy: A New Tool for
Deciphering the Spin Properties of Nanomagnetic Structures.
(Invited) C. Hirjibehedin1, C.P. Lutz1 and A.J. Heinrich11. IBM
Research Division, Almaden Research Center, San Jose, CA, USA

3:48

HE-06. Coaxial Palladium Nanowires: Magnetism and Transport.
D. Stewart11. Cornell Nanoscale Facility, Cornell University,
Ithaca, NY, USA

4:00

HE-07. Magnetotransport Properties of an Individual Singlecrystalline Bi Nanowire. W. Shim1, J. Ham1, K. Lee1, J. Chang2,
S. Han2, W. Jeung2, M. Johnson3 and W. Lee11. Department ofMaterials Science and Engineering, Yonsei University, Seoul,
South Korea; 2. Korea Institute of Science and Technology(KIST), Seoul, South Korea; 3. Naval Research Laboratory,
Washington, DC, USA

2:00
HF-01. Nonlinear microrheology of wormlike micelle solutions using
ferromagnetic nanowire probes. N. Cappallo1, C. Lapointe1,
R.L. Leheny1 and D.H. Reich11. Physics and Astronomy, Johns
Hopkins University, Baltimore, MD, USA
2:12
HF-02. Magnetorheology of submicron diameter iron microwires
dispersed in silicone oil. R.C. Bell1, J.O. Karli1, A.N. Vavreck1,
D.T. Zimmerman1, G.T. Ngatu2 and N.M. Wereley21. Penn State
Altoona, Altoona, PA, USA; 2. Department of Aerospace
Engineering, University of Maryland, College Park, MD, USA
2:24
HF-03. SEDIMENTATION RATE MEASUREMENT OF Fe-BASEDMAGNETORHEOLOGICAL FLUIDS WITH PARTIAL
SUBSTITUTION OF MICROPARTICLES WITH
NANOPARTICLES. G. Ngatu1 and N.M. Wereley11. Aerospace
Engineering, University of Maryland, College Park, MD, USA

4:12

2:36

HE-08. Low-spin phase in bi-atomic chains grown on vicinal Pt(997)
surfaces. J. Honolka1, K. Kuhnke1, D. Repetto1, V. Sessi1,
P. Gambardella2, S. Gardonio3, A. Enders1 and K. Kern11. MaxPlanck Institute FKF, Stuttgart, Germany; 2. Catalan Institute for
Research and Advanced Studies (ICREA), Barcelona, Spain; 3.
Istituto di Struttura della Materia, Consiglio Nazionale delle
Ricerche, Trieste, Italy

HF-04. DEVELOPMENT OF TUMOR TARGETING MAGNETIC
NANOPARTICLES FOR CANCER THERAPY. (Invited)
R. Ivkov1, S.J. DeNardo2, L.A. Miers2, A. Natarajan2,
A.R. Foreman1, C. Gruettner3, G.N. Adamson2 and
G.L. DeNardo21. Triton BioSystems, Chelmsford, MA, USA; 2.
Molecular Cancer Institute, University of California, Davis,
Sacramento, CA, USA; 3. Micromod Partikelteknologie GmbH,
Rostock, Germany

244

PROGRAMPROGRAM

3:12

4:36

HF-05. Size-dependent heating rates of iron oxide nanoparticles formagnetic fluid hyperthermia. M.G. Gonzales1, M. Zeisberger2
and K.M. Krishnan11. University of Washington, Seattle, WA,
USA; 2. Institute for Physical High Technology, Jena, Germany

HF-12. Magnetic relaxation in ferrimagnetic glass-ceramics obtainedby co-precipitation at different temperatures. P. Tiberto1,
M. Coisson1, F. Vinai1, P. Allia2, O. Bretcanu3 and E. Verne’31.
Materiali, INRIM, Torino, Italy; 2. Physics, Politecnico di Torino,
Torino, Italy; 3. Materials Science and Chemical Engineering,
Politecnico di Torino, Torino, Italy

3:24

HF-06. Size and Concentration Effects on High Frequency Hysteresisof Iron Oxide Nanoparticles. A. Eggeman1, S. Majetich1,
Q. Pankhurst2 and D. Farrell21. Physics, Carnegie Mellon
University, Pittsburgh, PA, USA; 2. London Centre for
Nanotechnology, University College, London, United Kingdom
3:36

HF-07. Evaluation of FeCo Nanoparticles for Heat Sources for
Thermoablative Cancer Therapy. A.H. Habib2,
M.E. McHenry1,2, M. Bockstaller1 and P.M. Chaudhary31.
Materials Sc. and Engg., Carnegie Mellon University, Pittsburgh,
PA, USA; 2. Physics, Carnegie Mellon University, Pittsburgh, PA,
USA; 3. Hillman Cancer Center, University of Pittsburgh Cancer
Institute, Pittsburgh, PA, USA
3:48

245

4:48

HF-13. Influence of coagulation of ferrite nanoparticles on their
heating ability for hyperthermia at 120 kHz, a noninvasive
frequency. K. Okawa1, T. Kanemaru1, Y. Hase2, S. Nomura2,
M. Ikeda2, K. Nishio2, M. Tada1, T. Nakagawa1, H. Handa2 and
M. Abe11. Department of Physical Electronics, Tokyo Institute ofTechnology, Tokyo, Japan; 2. Biological Information, Tokyo
Institute of Technology, Yokohama, JapanTHURSDAYAFTERNOON
2:00

LAUREL

Session HG

SPIN VALVES: METALLIC AND ORGANIC
HF-08. Size Dependent In-vitro Heating With Polyethylene Glycol
Coated Magnetic Nanoparticles. M.J. Bonder1, D. Gallo1,
B. Srinivasan1 and G.C. Hadjipanayis11. Physics and Astronomy,
University of Delaware, Newark, De, DE, USA

Peng Xiong, Session Chair

4:00

HG-01. Stochastic behavior of domain wall manipulation in magnetic
nano-wires. J. Briones1, F. Montaigne1, M. Hehn1, D. Lacour1,
M.J. Carey2 and J.R. Childress21. Laboratoire de Physique desMatériaux UMR 7556, Nancy-University, CNRS, Vandoeuvre lès
Nancy, France; 2. Sensor Materials & Technology, San Jose
Research Center - Hitachi Global Storage Technologies, San
Jose, CA, USA

HF-09. Effect of DNA coating on magnetic relaxation in γFe2O3
nanoparticles. P. Dutta1 and M.S. Seehra11. Physics, West
Virginia University, Morgantown, WV, USA

2:00

4:12
2:12
HF-10. A Magneto-Optic Approach towards Biomagnetic Sensing via
Brownian Relaxation. S. Chung1, M. Grimsditch1, A. Hoffmann1,
S.D. Bader1, J. Xie2, S. Peng2 and S. Sun21. Material Science
Division, Argonne National Laboratory, Argonne, IL, USA; 2.
Department of Chemistry, Brown University, Providence, RI, USA

HG-02. Contactless measurement of magnetoresistance using fibre
optics. T. Stanton1, T. Deakin1, M. Vopsaroiu1, S.M. Thompson1
and V.G. Artyushenko21. Physics, University of York, York, United
Kingdom; 2. A.R.T. Photonics GmbH, Berlin, Germany

4:24
2:24
HF-11. WITHDRAWN
HG-03. Improvement of Spin Valves Sensitivity and 1/f Noise Using
Flux Guide Concentrators. A. Guedes1,2, J.M. Almeida1,2 and
P.P. Freitas1,21. Magnetism, INESC-MN, Lisboa, Portugal; 2.
Physics, Instituto Superior Técnico, Lisboa, Portugal

246

PROGRAMPROGRAM

2:36

3:48

HG-04. Influence of a transversal magnetic field on the movement
and pinning of domain walls in narrow GMR wires.
R. Mattheis1, S. Glathe1, H. Baierl1 and M. Diegel11.
Magnetoelectronics, IPHT, Jena, Germany
2:48

247

HG-10. Novel Pinning Scheme for Current Perpendicular to the Plane
Spin Valves. C. Papusoi1, H. Fujiwara1, S. Gupta2, G. Mankey1,
Z. Tadisina2, E. Steimle2 and P. Leclair11. Center for Materials
for Information Technology (MINT), University of Alabama,
Tuscaloosa, AL, USA; 2. Metallurgical and Materials
Engineering, University of Alabama, Tuscaloosa, AL, USA

4:00
HG-05. Magnetoresistance of FeCo nanocontacts with CPP-SV
structure. H.N. Fuke1, S. Hashimoto1, M. Takagishi1,
H. Iwasaki1, S. Kawasaki2, K. Miyake2 and M. Sahashi21.
Corporate Research & Development Center, Toshiba
Corporation, Kawasaki, Japan; 2. Department of Electronic
Engineering, Graduate School of Engineering, Tohoku University,
Sendai, Japan

HG-11. Temperature and Field Dependence of the Low Frequency
Magnetic Noise in Spin Valves. A. Ozbay1, E.R. Nowak1,
A.S. Edelstein2, G.A. Fischer2 and C.A. Nordman31. Physics andAstronomy, University of Delaware, Newark, DE, USA; 2. U.S.
Army Research Laboratory, Adelphi, MD, USA; 3. NVE Corp.,
Eden Prairie, MD, USA

3:00
4:12
HG-06. Specific Resistance, Scattering Asymmetry, and Some
Thermal Instability of Co/Al, Co(9%Fe)/Al, and Fe/AlInterfaces. N. Theodoropoulou1, A. Sharma1, T. Haillard1,
R. Loloee1, W.P. Pratt Jr1, J. Bass1, J. Zhang2 and M.A. Crimp21.
Physics, Michigan State University, East Lansing, MI, USA; 2.
Chemical Engineering and Materials Science, Michigan State
University, East Lansing, MI, USA

HG-12. Negative spin valve effects and strong voltage asymmetry inorganic spintronic devices. V. Dediu1, I. Bergenti1, F. Casoli2,
L.E. Hueso1, A. Riminucci1, M. Murgia1 and C. Taliani11.
Spintronic Devices, Istitute for Nanostructured Materials,
Bologna, Italy; 2. IMEM-CNR, Parma, Italy

3:12

4:24

HG-07. Effect of Interfacial Spin Scattering and Interfacial
Resistance on Magnetoresistance. S. Kumar1,2, S. Tan2 andM. Jalil11. ECE, ISML (NUS), Singapore, Singapore; 2. SMI,
Data Storage Institute, Singapore, Singapore

HG-13. Electric characterization of large magnetoresistance inorganic spin-valves. J.J. Schoonus1, W. Wagemans1, F.L. Bloom1,
H.J. Swagten1 and B. Koopmans11. Department of Applied
Physics, Eindhoven University of Technology, Eindhoven,
Netherlands

3:24
4:36
HG-08. Role of interface domain wall on magnetoresistance inbilayers and spin valve structures. T. Hauet1, S. Mangin1,
M. Hehn1, F. Montaigne1, Y. Henry2 and E.E. Fullerton31.
Laboratoire de Physique de Matériaux, Nancy-University CNRS,
Vandoeuvre, France; 2. Institut de Physique et Chimie desMatériaux de Strasbourg-GEMM, Strasbourg, France; 3. San
Jose Research Center, Hitachi Global Storage Technologies, San
Jose, CA, USA

HG-14. Spin dependent transport via C60 molecules up to room
temperature. M. Shiraishi1, S. Miwa1, M. Mizuguchi1, T. Shinjo1
and Y. Suzuki11. Graduate School of Engineering Science, Osaka
University, Toyonaka, Osaka, Japan

4:48

3:36

HG-09. Hot electron transport in fully epitaxial Fe34Co66/Au/Fe34Co66spin-valves using (Scattering) Ballistic Electron Magnetic
Microscopy. E. Heindl1, J. Vancea1 and C. Back11. Department of
Physics, NWF II, Regensburg, Bavaria, Germany

HG-15. Magnetoresistance in hybrid ultra-thin organic-ferromagnet
devices. W. Xu1,3, P. LeClair2,3, H. Guo3, J. Tang1,3, A. Gupta1,3 andG. Szulczewski1,31. Chemistry, University of Alabama,
Tuscaloosa, AL, USA; 2. Physics, University of Alabama,
Tuscaloosa, AL, USA; 3. MINT Center, University of Alabama,
Tuscaloosa, AL, USA

248

PROGRAMTHURSDAYAFTERNOON
2:00

PROGRAM

DOVER

Session HH

NEW MAGNETIC MATERIALS II

249

3:00

HH-06. Magnetic Interactions in Fe3N-GaN Nanocomposites.
N.S. Gajbhiye1,2 and S. Bhattacharyya11. Chemistry, Indian
Institute of Technology, Kanpur, U.P., India; 2. Institute of
Nanotechnology, Karlsruhe, Germany

Igor Roshchin, Session Chair
3:12
2:00

HH-01. Magnetic properties of Au nanoparticles in polymers. J. de la
Venta1, A. Pucci2, E. Fernandez-Pinel1, M. Garcia1, C. de Julian3,
P. Crespo1, G. Ruggeri2, A. Hernando1, A. Hoffmann4 and
D. Haskel51. Instituto de Magnetismo Aplicado, Universidad
Complutense de Madrid, Las Rozas, Madrid, Spain; 2. Dept. ofChemistry and Industrial Chemistry, University of Pisa, Pisa,
Italy; 3. Dipartamento di Fisica “G. Gallilei”, Università di
Padova, Padova, Italy; 4. Materials Science Division, Argonne
National Laboratory, Argonne, IL, USA; 5. Advanced Photon
Source, Argonne National Laboratory, Argonne, IL, USA
2:12

HH-02. Magnetic Behavior of Radially Distributed Arrays of Co and
Ni Nanowires. R. Sanz1, K.R. Pirota1, M. Hernandez-Velez1,2 andM. Vazquez11. Propiedades opticas magneticas y de transporte,
Instituto de ciencia de materiales de Madrid, Madrid, Madrid,
Spain; 2. Fisica Aplicada, Universidad Autonoma de Madrid,
Madrid, Madrid, Spain
2:24
HH-03. Magnetic properties of ZnO Nanoparticles. A. Quesada1,
J. Merino1, E. Fernandez-Pinel1, J. de la Venta1, M. Garcia1,
M. Ruiz-Gonzalez2, P. Crespo1, J. Gonzalez-Calbet2 and
A. Hernando11. Instituto de Magnetismo Aplicado, Universidad
Complutense de Madrid, Las Rozas, Madrid, Spain; 2.
Departamento de Química Inorgánica I, Universidad
Complutense de Madrid, Madrid, Madrid, Spain
2:36
HH-04. Phase Formation in L10 Magnets. R. Skomski11. Department of
Physics and Astronomy and Nebraska Center for Materials andNanoscience, University of Nebraska, Lincoln, NE, USA
2:48

HH-05. New DMS materials: ferromagnetism in V, and Ti doped
In2O3. K. Parekh1, A. Gupta1, H. Cao1, K.V. Rao1, A.R. Raju2 and
U.V. Waghmare31. Materials Science and Engineering, RoyalInstitute of Technology, Stockholm, Sweden; 2. Honeywell
Technology Solutions Lab, Bangalore-560076, India; 3.
Jawaharlal Nehru Centre for Advanced Scientific Research
Jakkur PO, Bangalore-560 064, India

HH-07. Tailoring the magnetic properties of mechanically hardest
Co-Fe-Ta-B glassy thin films. P. Sharma1, H. Kimura2 andA. Inoue21. Japan Science and Technology Agency, Institute forMaterials Research, Tohoku University, Sendai, Japan; 2.
Institute for Materials Research, Tohoku University, Sendai,
Japan
3:24

HH-08. Magnetorheological Fluid in Squeeze Mode under Different
Instantaneous Magnetic Field. S. Mazlan1 and A. Olabi11.
School of Mechanical and Manufacturing Engineering, Dublin
City University, Dublin 9, Ireland
3:36

HH-09. Ferromagnetic Semiconductor Material Based on
Mechanochemical Mixture of Polyaniline-Polystyrene and Fe
Nanoparticles. R. Rakhimov1, J.S. Hwang2, S.P. Solodovnikov3,
I.A. Alexandrov4 and A.I. Aleksandrov41. Norfolk State
University, Norfolk, VA, USA; 2. Texas A & M University at Qatar,
Doha, Qatar; 3. Institute of Organoelement Compounds,
Moscow, Russian Federation; 4. Institute of Synthetic Polymer
Materials, Moscow, Russian Federation
3:48

HH-10. Secondary recrystallization, crystallographic texture andmagnetostriction in rolled Fe-Ga based alloys. S.M. Na1 and
A. Flatau11. Univ. MD, College Park, MD, USA