Advance Program

International Symposium on
Optical Memory and Optical
Data Storage
Topical Meeting and Tabletop Exhibit
July 13-17, 2008
Hilton Waikoloa Village
Waikoloa, Hawaii
Postdeadline Paper Submission Deadline:
June 16, 2008
Pre-Registration Deadline: June 23, 2008
Hotel Reservation Deadline: June 12, 2008
Sponsored by:
SPIE
IEEE/Lasers and Electro-Optics Society
Optical Society of America
The Japan Society of Applied Physics
The Magnetics Society of Japan
Optoelectronic Industry and Technology Development Association
In Cooperation with:The Institute of Electronics, Information and Communication Engineers
The Chemical Society of Japan
Information Processing Society of JapanThe Institute of Electrical Engineers of JapanThe Institute of Image Electronics Engineers of JapanThe Institute of Image Information and Television Engineers
The Japan Society of Precision Engineering
The Laser Society of Japan

http://spie.org/events/ods
http://www.isom.jp

Foreword
The Joint International Symposium on Optical Memory
and Optical Data Storage 2008 (ISOM/ODS’08) will beheld on "The Big Island" of Hawaii 13-17 July 2008.
Reflecting the international nature of the interest andwork in optical memory and optical data storage, thesetwo conferences are held jointly every third year.
The unparalleled setting of this conference provides an
outstanding opportunity to share the latest informationin this dynamic field with your international colleagues.
New developments in holographic, three-dimensional,
near-field, super-resolution and hybrid recording
technologies for the fourth-generation systems will be
the main focus at this conference.
Specialsessionson“Nano-Photonics”
and“Applications” are also planned.
In addition to the technical sessions, on Sunday 13
July 2008, a series of short courses will be presented
on the latest developments in the field of opticalmemory and optical data storage.
Industry representatives will also be on hand to exhibit
their latest developments in equipment and materials.
The official conference language will be English.

Topics
Topics to be covered: Basic Theory
 Testing and Characterization
 Media Components
 Coding and Signal Processing
 Drive Technologies
 Systems and Applications
 Holographic Recording Three-Dimensional Processing Near-Field Recording Super-Resolution
 Hybrid Recording New or Related Technologies-2-Invited Speakers
Keynote Session
MA1: Nanophotonics and Application to Future
Storage Technology
Motoichi Ohtsu, Univ. of Tokyo
MA2: Can future storage technologies benefit fromthe existing/emerging nano-tools and techniques?
Masud Mansuripur, College of Optical Sciences/The
Univ. of Arizona

General Sessions
MB1: Terabyte Recorded in Two-Photon 3D Disk
Edwin Walker, Call/Recall, Inc.
MB3: Micro-Holographic Storage and Threshold
Recording Materials
Brian Lawrence, GE Global Research
TuA1: Readout-Signal Amplification by Homodyne
Detection Scheme
Hideharu Mikami, Hitachi Ltd.
TuA2: System Technology for Achieving 200GB
Drive with 5-Layer Disc
Kyunggeun Lee, Samsung Electronics Co., Ltd.
TuB1: Liquid Crystal Active Optics and Its
Application to Optical Pickups
Nobuyuki Hashimoto, Citizen Technology Center Co.,
Ltd.
TuB5: The Challenges of Heat Assisted Magnetic
Recording Head Integration
Cal Hardie, Seagate Technology LLC
WA1: Fundamental Exploration of the Solutions
for Ultra-High Density Optical Recording
Luping Shi, Data Storage Institute
WB1: Challenge to Snap Shot Structural Visualizationof the Phase Change
Masaki Takata, RIKEN Harima Institute
WB6: Applications of ODS Technology to Lithography
Tom Milster, Univ. of Arizona
ThB1: Linear Signal Processing for a Holographic
Data Storage Channel Using Coherent Addition
Masaaki Hara, Sony Corp.
ThB3: Development of a Coaxial Holographic Data
Recording System
Atsushi Fukumoto, Sony Corp.

-3-

ThC5: Optical Super-Resolution through SuperOscillations
Nikolay Zheludev, Univ. of Southampton

Special Session: Nano-Photonics
MC1: Recent Progress in Photonic Crystals for
Manipulation of Photons
Susumu Noda, Kyoto Univ.
MC2: Nano Optics
Marko Loncar, Harvard Univ.
MC3: Optical manipulation of microscopic containers
for chemistry with single molecules
Kristian Helmerson, National Institute of Standards
and Technology
MC4: Applications of C-Apertures to Optical Data
Storage
Lambertus Hesselink, Stanford Univ.
MC5: Nanophotonics-Based Optical Data Storage
Min Gu, Swinburne Univ. of Technology

Special Session: Applications
TuC1: Toward Adoption of Optical Disks for
Preservation of Digitized Cultural Heritage
Kunimaro Tanaka, Teikyo Heisei Univ.
TuC2: Trends in the Digital Home: Why'IMG0064.jpg' is the New Blinking 12:00
Tim Rausch, Seagate Technology
TuC3: Applications for 4th Generation Optical
StorageTuviah Schlesinger, Carnegie Mellon Univ.
TuC4: DVD Download
Shoji Taniguchi, Pioneer Corp.
TuC5: Optical Storage in 2008: Where is thecompetition heading?
Barry Schechtman, Information Storage Industry
Consortium-4-

Short Courses
Four Short Courses are planned for July 13, 2008.
Get the latest training from top experts. Advanceyour knowledge of key issues in optical memory andoptical data storage.
SC917: Holographic Storage: Advanced Systems
and Media
Time: 8:30 AM-12:30 PM
Place: Kona Room
Instructor: Kevin R. Curtis, InPhase Technologies
Inc.
Member Price $225 | Non-member Price $300
Course Level: Intermediate
CEU: 0.35
SC918: Heat Assisted Magnetic Recording (HAMR)
Time: 1:30 PM-5:30 PM
Place: Kona Room
Instructor: James A. Bain, Carnegie Mellon Univ.
Member Price $225 | Non-member Price $300
Course Level: Intermediate
CEU: 0.35
SC919: Basics of Servo Technology for Optical Disk
Time: 8:30 AM-12:30 PM
Place: Kona Room
Instructor: Kiyoshi Ohishi, Nagaoka Univ. ofTechnology
Member Price $225 | Non-member Price $300
Course Level: Intermediate
CEU: 0.35
SC920: Near-Field Recording Technology (Thetitle is tentative.)
Time: 1:30 PM-5:30 PM
Place: Kona Room
Instructor: Thomas D. Milster, College of Optical
Sciences/The Univ. of Arizona
Member Price $225 | Non-member Price $300
Course Level: Intermediate
CEU: 0.35-5-SC917: Holographic Storage: Advanced
Systems and Media
Time: 8:30 AM-12:30 PM
Place: Kona Room
Instructor: Kevin R. Curtis, InPhase Technologies
Inc.
Member Price $225 | Non-member Price $300
Course Level: Intermediate
CEU: 0.35
Course Details
This short course addresses the fundamental
principles and design issues pertaining to digitalholographic data storage (HDS). The fundamental
principles of holography, including formation of anddiffraction from thick diffraction gratings, areexplained. Multiplexing techniques for thick gratings
based on Bragg, momentum, or correlation techniques
are discussed and explained with an introduction to
k-space analysis.
The system architecture of phase conjugate
polytopic-angle based systems is presented andtheir key design issues explained. The monoculararchitecture version of angle-polytopic is also
explained. The metrics used to determine basic
system performance and limitations are discussed.
Write strategies and record scheduling for achieving
high capacity in HDS systems are described. The
concepts and issues with mastering and replicationof holographic media are also explained. For angle
multiplexing based systems, the servo systems andtolerances are discussed. These include thermalcompensation and disk position and tilts. Key systemcomponent (laser, SLM (Spatial Light Modulator),
optical design, and detector) requirements for highperformance HDS systems are discussed.
The data channel for HDS systems is particularly
different than conventional optical storage systems.
The key issues such as over-sampled detection,interleaving, and error correction are presented.
HDS media requirements are explained and related
to drive performance. Techniques for testing basic
media parameters are also presented.

-6-

Learning OutcomesThis course will enable you to: explain and use the basic principles of HDS
 estimate achievable performance of basic
HDS systems and media
 design basic HDS systems including servo
systems and data channel
 list the key issues, limitations, and tradeoffs
in HDS system design
 list the key issues, limitations, and tradeoffs
in HDS media design
 test basic media parameters summarize the latest results in HDS
performance compare HDS against conventional optical
data storage systems
Intended Audience
This course is intended for engineers and scientists
interested in high density optical data storage systems.
Attendees are expected to have a Bachelors degree inengineering or science, or equivalent experience, andto have familiarity with optics concepts and opticalstorage systems. Rudimentary knowledge of holography
or holographic recording materials is helpful, but notrequired.
Instructor
Kevin Curtis is Chief Technology Officer and founderof InPhase Technologies in Longmont, Colorado. In
this role, Kevin manages and provides the technicaldirection for the advanced research and developmentof InPhase's holography-based technologies andproducts for storage. Prior to founding InPhase,
Kevin was a member of the technical staff at Bell
Laboratories where he directed the efforts of theholographic storage program upon which InPhase
was founded. This included business development
and raising the Series A investments to start
InPhase. Kevin has worked at Caltech, Northrop andBell Labs on holographic optical systems for over 17
years. Dr. Kevin Curtis received his B.S., M.S., andPh.D. degrees in electrical engineering in 1990,
1992 and 1994, respectively, all from the California
Institute of Technology, Pasadena, California. He
has authored 70+ publications and talks and has-7-over 50 U.S. Patents awarded on holographic
storage.

SC918: Heat Assisted Magnetic Recording(HAMR)
Time: 1:30 PM-5:30 PM
Place: Kona Room
Instructor: James A. Bain, Carnegie Mellon Univ.
Member Price $225 | Non-member Price $300
Course Level: Intermediate
CEU: 0.35
Course Details
This course provides attendees with a working
knowledge of heat assisted magnetic recording andthe main technical constraints in developing acommercially viable system. The focus of this course
will be on the thermo-magnetic aspects of HAMR essentially the recording physics. The discussion will
be developed by first looking at issues of systemdesign from the standpoint of areal density and thethermal stability of magnetic bits. The various HAMR
topologies (wide heat, narrow field vs narrow heat,wide field) will then be examined, and the viabilityof each discussed. Finally, the resulting requirements
for HAMR small thermal spots will discussed, alongwith how they can be generated. Supplementarymaterial will be covered on the other important
aspects of HAMR systems vis a vis traditional
recording, such as lubrication, optical delivery, etc.
The course will conclude with a review of the current
research agenda for future HAMR systems.
Learning OutcomesThis course will enable you to: explain the main design drivers for heatassisted magnetic recording systems
 estimate parameters of the system that areconsistent with a particular areal density
 compute required spot sizes and thermal
parameters for a HAMR system identify recording systems issues in HAMR
systems beyond thermo-magnetic physics
 summarize novel approaches to HAMR thatare under development-8-

Intended Audience
This material is intended for those with somefamiliarity with magnetic or optical recording, but
without detailed familiarity with the design drivers
and constraints in the implementation of HAMR.
Instructor
James Bain is a Professor of Electrical and Computer
Engineering at Carnegie Mellon University, where heis the Associate Director of the Data Storage
Systems Center. Prof Bain has over 100 refereed
publications in magnetic and electronic devices fordata storage. He has been active in HAMR recording
for the last decade and is a member of the IEEE
Magnetics Society.

SC919: Basics of Servo Technology for
Optical Disk
Time: 8:30 AM-12:30 PM
Place: Kona Room
Instructor: Kiyoshi Ohishi, Nagaoka Univ. ofTechnology
Member Price $225 | Non-member Price $300
Course Level: Intermediate
CEU: 0.35
Course Details
This course provides attendees with a basic
knowledge of tracking servo control design for
optical disk drive systems. The course concentrates
on the theory and structure of feedback control,robust control, feedforward control and disturbanceobserver for optical disk drive systems. Many
practical and useful examples are included throughout.
You will become fluent with how one designs
tracking servo controllers for many varied applications.
Learning OutcomesThis course will enable you to: gain a basic knowledge of servo control
design for your application
 design feedback control, robust control,
feedforward control and disturbance observer
 construct the robust feedforward control for
optical disk drive system

-9-



construct the sudden disturbance observer
for optical disk drive system

Intended Audience
This course is intended for anyone who needs tolearn how to design tracking servo control. Those
who either design their own controller or who workwith servo designers will find this course valuable.
Instructor
Kiyoshi Ohishi is a full professor at Nagaoka
University of Technology in Japan, and has been
involved in tracking servo control design andengineering for over 25 years. He received the B.E.,
M.E., and Ph.D. degrees in electrical engineeringfrom Keio University, Yokohama, Japan, in 1981,
1983, and 1986, respectively. He received theOutstanding Paper Award at IECON'85 and Best
Paper Awards at IECON'02 and IECON'04 from theIEEE Industrial Electronics Society, as well as theBest Paper Award from the Institute of ElectricalEngineers of Japan in 2002. Dr. Ohishi is a memberof IEEE and IEEJ.

SC920: Near-Field Recording Technology(The title is tentative.)
Time: 1:30 PM-5:30 PM
Place: Kona Room
Instructor: Thomas D. Milster, College of Optical
Sciences/The Univ. of Arizona
Member Price $225 | Non-member Price $300
Course Level: Intermediate
CEU: 0.35
More information on this course will be available
soon at http://spie.org/events/ods.

-10-Agenda of Sessions
Monday, July 14
8:45am-9:00am
9:00am-10:00am
10:00am-10:30am
10:30am-12:30pm
12:30pm-2:00pm
2:00pm-3:30pm
3:30pm-4:30pm
4:30pm-5:00pm
5:00pm-6:30pm

Tuesday, July 15
8:30am-10:00am
10:00am-10:30am
10:30am-12:30pm
12:30pm-2:00pm
2:00pm-3:30pm
3:30pm-4:30pm
4:30pm-5:00pm
5:00pm-6:30pm
7:00pm-8:30pm

Opening Remarks
MA
Keynote Session
Coffee BreakMB
3D Storage
Lunch BreakMP
Poster Session I
MCSpecial Session:
Nano-Photonics
Coffee BreakMCSpecial Session:
Nano-Photonics

TuA
Drive Technologies
Coffee Break
TuB
Components andHybrid Recording
Lunch Break
TuP
Poster Session II
TuCSpecial Session:
Applications
Coffee Break
TuCSpecial Session:
Applications
Reception

Wednesday, July 16
8:30am-10:00am
WA
10:00am-10:30am
10:30am-12:30pm
Thursday, July 17
8:30am-10:00am
10:00am-10:30am
10:30am-12:30pm
12:30pm-2:00pm
2:00pm-4:00pm
4:00pm-4:30pm
4:30pm-5:30pm
5:30pm-6:00pm

New and Related
Technologies
Coffee BreakWBMedia and Applications

Coding and Signal
Processing
Coffee BreakThB
Holographic I
Lunch BreakHolographic II and
ThCSuper Resolution
Coffee BreakPostdeadline Session
ThD
Closing Remarks
ThA

-11-

Technical Program
Monday 14 July
[Opening Remarks]
Monarchy Ballroom, 8:45 to 9:00 am
ODS General Chairs: Tim Rausch, Seagate Technology LLC(USA); Kimihiro Saito, Sony Corp. (Japan)
ISOM Organizing Committee Chair: Koichi Ogawa, The Univ.
of Tokyo (Japan)
ISOM Steering Committee Chair: Itaru Fujimura, Ricoh Co.,
Ltd. (Japan)[SESSION MA: Keynote Session]
Monarchy Ballroom, 9:00 to 10:00 am
Session Chair: Kevin R. Curtis, InPhase Technologies Inc.
(USA); Haruki Tokumaru, NHK Science & Technical ResearchLabs. (Japan)
MA1 9:00 am: Nanophotonics and application to futurestorage technology (Invited Paper), Motoichi Ohtsu, Univ. ofTokyo (Japan) [TD05-01]
This paper describes the principles and history of nanophotonics,
which utilizes the energy transfer of a virtual exciton–polariton.
The true nature of this field of study is to realize "qualitative
innovation" in optical technology, including photonic devices,fabrications, and information storage. Application to opticalnear-field magnetic-hybrid recording at a 1-Tb/inch2 density isreviewed. For the future development of storage technology,
two directions are proposed: one follows the technical roadmap
to increase the storage density to 1-Pb/inch2 utilizing
nanophotonic devices, while the other deviates from theroadmap. High-security information transfer is one example ofthe latter.
MA2 9:30 am: Can future storage technologies benefit
from the existing/emerging nano-tools and techniques?
(Invited Paper), Masud Mansuripur, College of Optical
Sciences/The Univ. of Arizona (USA) [TD05-02]
Certain ideas and techniques are being developed outside thefield of optical/magnetic/electronic recording, but the storage
community could benefit from these developments once we
become sufficiently familiar with the new concepts andmethodologies. Aside from nano-photonics, which is the subjectof Professor Ohtsu's keynote address, developments in theareas of bio-photonics, fluorescence microscopy, quantum-dots,
optical tweezers, micro- and nano-fluidic systems, femtosecond fiber lasers, etc., have the potential to influence future
generations of data storage systems.

[Coffee Break]Queen’s Ballroom, 10:00 to 10:30 am[SESSION MB: 3D Storage]
Monarchy Ballroom, 10:30 am to 12:30 pm
Session Chair: Kimihiro Saito, Sony Corp. (Japan); Yoshimasa
Kawata, Shizuoka Univ. (Japan)
MB1 10:30 am: Terabyte recorded in two-photon 3D disk
(Invited Paper), Edwin P. Walker, Call/Recall, Inc. (USA);
Alexander S. Dvornikov, Call/Recall, Inc. and Univ. of
California/Irvine (USA); Kenneth D. Coblentz, Call/Recall, Inc.
(USA); Peter M. Rentzepis, Univ. of California/Irvine (USA)-12-[TD05-03]
1TB has been recorded in 200 layers in one of our two-photon
120mm diameter x 1.2mm thick form factor 3D disks utilizing
our very stable and efficient two-photon materials. Each layer
contains 5GB of information.
MB2 11:00 am: Multi-layer 400 GB optical disk, Ayumi
Mitsumori, Takanobu Higuchi, Takuma Yanagisawa, Masakazu
Ogasawara, Satoru Tanaka, Tetsuya Iida, Pioneer Corp. (Japan)[TD05-04]
We confirmed the feasibility of a multi-layer 400 GB optical
ROM disk by using a wide range spherical aberrationcompensator and low absorption reflective materials.
MB3 11:15 am: Micro-holographic storage and threshold
holographic recording materials (Invited Paper), Brian L.
Lawrence, Victor P. Ostroverkhov, Xiaolei Shi, Kathryn L.
Longley, Eugene P. Boden, GE Global Research (USA)[TD05-06]
The limits of micro-holographic storage using standard
holographic materials are demonstrated.
New threshold
holographic materials are being developed to overcome theselimits, and preliminary threshold micro-hologram recording
results are presented.
MB4 11:45 am: Direct servo error signal detection methodfrom recorded micro-reflectors, Hirotaka Miyamoto, Hisayuki
Yamatsu, Kimihiro Saito, Norihiro Tanabe, Toshihiro Horigome,
Goro Fujita, Seiji Kobayashi, Hiroshi Uchiyama, Sony Corp.
(Japan) [TD05-07]
A novel tracking servo error signal detection method for a
micro-reflector drive is proposed. The method realizes better
performance regarding recording medium interchangeability.
MB5 12:00 pm: Microholographic data storage towards
dynamic disk recording, Susanna Orlic, Enrico Dietz, Sven
Frohmann, Jonas Gortner, Alan Guenther, Jens Rass,
Technische Univ. Berlin (Germany) [TD05-08]
Dynamic recording of microholographic reflection gratings isreported. The current development status and operation of our
microholographic drive system is presented.
MB6 12:15 pm: Three-dimensional recording with electricalbeam control, Ryuichi Katayama, Shin Tominaga, Yuichi
Komatsu, Mizuho Tomiyama, NEC Corp. (Japan) [TD05-09]
A concept of an optical storage system without mechanics
having high-reliability and low-power-consumption characteristics
was proposed and demonstrated by using liquid crystal beam
control elements.

[Lunch Break]
12:30 to 2:00 pm[SESSION MP: Poster Session I]
Queen’s Ballroom, 2:00 to 3:30 pm
Session Chairs: Luping Shi, Data Storage Institute(Singapore); Takashi Kikukawa, TDK Corp. (Japan); YunSup Shin, LG Electronics Inc. (South Korea)
MP1 Properties of new fluorinated holographic recording
material for collinear holography, Kazuyuki Satoh, Daikin
Industries, Ltd. (Japan) and Toyohashi Univ. of Technology(Japan); Kazuko Aoki, Makoto Hanazawa, Nami Matsuda,
Takashi Kanemura, Daikin Industries, Ltd. (Japan); Pang-Boey
Lim, Mitsuteru Inoue, Toyohashi Univ. of Technology (Japan)[TD05-60]-13-

This paper reports the evaluation results of the properties of a
new fluorinated holographic recording material for Collinear
Holography.
MP2 Holographic recording with blue colorated diarylethenedye doped PMMA, Xinan Liang, Xuewu Xu, Minghua Li, Sanjeev
Solanki, Minghui Hong, Chong-Tow Chong, Data Storage
Institute (Singapore) [TD05-61]
Blue light illuminated diarylethene dye B1536 doped PMMA
were investigated for holographic recording. High sensitivity
and refractive index change were achieved.
MP3 ZrO2 nanoparticle-polymer composite media for volume
holographic recording, Toshihiro Nakamura, Sokoh Koda,
Kohji Ohmura, Yasuo Tomita, The Univ. of ElectroCommunications (Japan); Kentaro Ohmori, Motohiko Hidaka,
Nissan Chemical Industries, Ltd (Japan) [TD05-62]
Volume holographic recording in highly transparent zirconia
nanoparticle-polymer composite media is described. Recording
sensitivity enhancement and hologram multiplexing are alsopresented.
MP4 Improved photopolymer for holographic data storage,
Yuxia Zhao, Xiaojun Wan, Feipeng Wu, Technical Institute ofPhysics and Chemistry (China); Huanyong Wang, Pengfei Liu,
Shiquan Tao, Beijing Univ. of Technology (China) [TD05-63]
Improved photopolymer for holographic data storage containing
a novel broad-band absorption photosensitizer was developedfor both 457 nm and 532 nm application.
MP5 Holographic correlator for video image files, Eriko
Watanabe, Reiko Akiyama, Kashiko Kodate, Japan Women's
Univ. (Japan) [TD05-64]
We have proposed a video identification system using
holographic correlator. Taking advantage of fast dataprocessing capability of FARCO, we examined high speed
recognition system by registering the optimized video image file.
We demonstrate that the processing speed of our opticalholographic calculation is remarkably higher than that of theconventional digital signal processing architecture.
MP6 Polarization and random phase modulated reference
beam for high-density holographic recording with 2D
shift-multiplexing, Sanjeev Solanki, Xuewu Xu, Minghua Li,
Xinan Liang, Chong-Tow Chong, Data Storage Institute(Singapore) [TD05-65]
Shift-multiplexing with polarization modulated reference beamis reported with recording of 4kbits data with media shift of
1/2.5 micron along x/y axis.
MP7 Rotational random phase multiplexing, Shih-Hsin Ma,
Xuan-Hao Lee, Ye-Wei Yu, Tun-Chien Teng, Ching-Cherng Sun,
National Central Univ. (Taiwan) [TD05-66]
An out-of-plane rotational random phase multiplexing is
proposed. The rotational sensitivity is enhanced and can betuned over a large range.
MP8 Parallel realization of two-dimensional discrete
Walsh transform in volume holographic storage system,
Qiang Ma, Kai Ni, Qingsheng He, Liangcai Cao, Guofan Jin,
Tsinghua Univ. (China) [TD05-67]
As an application of the volume holographic storage system, amethod that can parallelly perform 2D discrete Walsh transformis theoretically and experimentally described.
MP9 Phase-only correlation for high speed image retrieval-14-

in holographic memories, Satoshi Honma, Akiyoshi Katsumata,Shinzo Muto, Univ. of Yamanashi (Japan); Tohru Sekiguchi,
NEC Corp. (Japan) [TD05-68]
We focus on that it is possible to record the phase distribution
in the holographic memories and propose a new image
matching system.
MP10 Selective erasure of multiplexed holograms using
beam amplification by mutually-pumped phase conjugate
mirror, Takayuki Sano, Atsushi Okamoto, Hokkaido Univ.
(Japan); Kunihiro Sato, Hokkai-Gakuen Univ. (Japan)[TD05-69]
We propose a novel selective erasure using MPPCM. We show
the effective selective erasure can be realized by amplified
phase conjugate beams due to MPPCM.
MP11 Spatial resolution of phase-modulated signal
detection method using photorefractive two-wave mixing
for holographic data storage, Masanori Takabayashi, Atsushi
Okamoto, Hokkaido Univ. (Japan) [TD05-70]
A spatial resolution of the phase-modulated signal detection
using photorefractive two-wave mixing is considered. We
confirmed the operation of a few hundreds micrometers of pixel.
MP12 Micro-integrated r/w-head for WORM-type holographic
data storage, Matthias Gruber, Udo Vieth, Univ. of Hagen(Germany) [TD05-71]
The micro-integration of setups for write-once-read-many-type
volume holographic data storage is discussed and a particularr/w-head architecture based on planar integration is proposed.
MP13 Simulation technique for diffraction efficiency
characteristics in holographic data storage system basedon FFT-BPM, Junya Tanaka, Atsushi Okamoto, Motoki Kitano,
Hokkaido Univ. (Japan) [TD05-72]
We propose a new simulation method based on FFT-BPM toanalyze for diffraction efficiency characteristics in holographic
data storage system and visualize an angular selectivity.
MP14 Numerical simulation of retrieving characteristics
in holographic data storage by two-wave encryption,
Motoki Kitano, Atsushi Okamoto, Takayuki Sano, Hokkaido Univ.
(Japan) [TD05-73]
We estimate the effective key space and the shift tolerance tothe random phase mask in two-wave encryption and discuss
the security and the practicality.
MP15 Analysis of diffraction characteristics of photopolymers
by using beam propagation method, Shuhei Yoshida, Manabu
Yamamoto, Tokyo Univ. of Science (Japan) [TD05-74]
In this study, we simulated formation of holographic grating inphotopolymer based on diffusion model, and analyzed
diffraction characteristics by using beam propagation method.
MP16 Modeling and detection of linear and threshold
microholograms, Fergus J. Ross, Victor P. Ostroverkhov,
Xiaolei Shi, Kenods Welles, Brian L. Lawrence, GE Global
Research (USA) [TD05-75]
Linear and threshold material microholographic storage
tradeoffs are investigated by simulation. Kogelnik’s plane-wave
diffraction formula at thickness Zo/2 accurately predicts
microholographic diffraction efficiency.
MP17 Optical characterization of photopolymer materials
for microholographic data storage, Timo Feid, Enrico Dietz,
Sven Frohmann, Christian Mueller, Jens Rass, Susanna Orlic,-15-

Technische Univ. Berlin (Germany) [TD05-76]
Different photopolymer materials are investigated for
microholographic storage to optimize the interaction between
the material itself and the write/read system. Media tester
system is presented.
MP18 Data recovery from severely damaged optical
media using wavelet transforms, Swetha Kannan, Y. Li,
Sashi K. Kasanavesi, Pramod K. Khulbe, Thomas D. Milster,
Warren L. Bletscher, Delbert Hansen, College of Optical
Sciences/The Univ. of Arizona (USA) [TD05-77]
Wavelet-transform-based algorithms are developed that
increase by at least a factor of two the quality of the recovered
signals from badly damaged media.
MP19 Laser diode feedback signal for position sensing
using self-mixing interference, Meng-Yen Tsai, Tzong-Shi
Liu, National Chiao Tung Univ. (Taiwan); Tuviah E. Schlesinger,
Carnegie Mellon Univ. (USA) [TD05-78]
We utilize laser diode (LD) package as sensor mounted on DVD
pickup. Smaller rotation driven by tilting coil in DVD pickup
makes feedback signal distinct.
MP20 High resolution semiconductor inspection by using
solid immersion lenses, Jun Zhang, College of Optical
Sciences/The Univ. of Arizona (USA); Yullin Kim, Infrared Labs.,
Inc. (USA); Thomas D. Milster, College of Optical Sciences/The
Univ. of Arizona (USA); David M. Dozor, Infrared Labs., Inc.
(USA) [TD05-79]
A subsurface (100µm) microscope is presented with NA=2.45
by using a silicon SIL. The application is IC inspection. Gap andtilt servo are also discussed.
MP21 Photochromic memory with electronic functions II,
Tsuyoshi Tsujioka, Osaka Kyoiku Univ. (Japan) [TD05-80]
Various aspects of photochromic memory with electronic
function is introduced. Combination of electrical carrier
separation and isomerization via hole transportation would
achieve high recording sensitivity.
MP22 Chalcogenide layers for optically guided mechanicalrecording-readout, Mihail Trunov, Uzhgorod National Univ.
(Ukraine); Peter Nagy, Erika Kalman, Chemical Research Ctr.
(Hungary); Viktor Takats, Sandor J. Kokenyesi, The Univ. of
Debrecen (Hungary) [TD05-81]
The giant negative photoplastic effect (giant photosoftening) in
amorphous chalcogenide layers was observed and applied tothe optically guided nanoindentation experiments. Results canbe used in a Millipede-type data recording device.
MP23 Online face recognition system using holographic
optical correlator, Reiko Akiyama, Sayuri Ishikawa, Eriko
Watanabe, Kashiko Kodate, Japan Women's Univ. (Japan)[TD05-82]
We have proposed and improved a face recognition system
based on the algorithm for the Fast Face Recognition Optical
Correlator system (FARCO).
MP24 Characteristic of the tracking error signal of anovel multi-level read-only disc, Mingming Yan, Jing Pei,
Longfa Pan, Yi Tang, Tsinghua Univ. (China) [TD05-83]
The uniformity and symmetry of the DPD signal of the novel
ML-RLL disc by using signal wave-shape modulation is better
than the former ML-RLL disc.
MP25 Symmetric driving coils design for three-axis actuator-16-

with low interference force, Buqing Zhang, Jianshe Ma,
Longfa Pan, Xuemin Cheng, Hua Hu, Yi Tang, Tsinghua Univ.
(China) [TD05-84]
A novel magnetic circuit consisting of symmetric driving coils isdeveloped. This configuration reduces the crosstalk forces in
the main moving directions, and improves the driving
sensitivity of the actuator used in super multi DVD drive.
MP26 Off axis astigmatic reflector for compact optical
pickup, Ya-Ni Su, Cheng-Huan Chen, National Tsing Hua Univ.
(Taiwan) [TD05-85]
An optical pickup with all its components stacked up layer bylayer and based mostly on reflective optical components has
been proposed as a compact and high efficiency solution.
MP27 Inorganic reflective achromatic quarter-waveplate
for OPU applications, Kim L. Tan, Karen D. Hendrix, Curtis R.
Hruska, Nada A. O'Brien, JDSU Corp. (USA) [TD05-86]
An all-inorganic reflective QWP that is achromatic for the threelaser wavelengths of an OPU is designed and demonstrated.
Implementation into an OPU is described.
MP28 Estimation method of the archival lifetime for
optical recordable disks, Mitsuru Irie, Osaka Sangyo Univ.
(Japan); Yoshihiro Okino, Kansai Univ. (Japan); Takahiro Kubo,
T. Kubo Engineering Science Office (Japan) [TD05-87]
This paper presents a simple estimating method for the archival
life expectancy of optical disks in order to apply a roughclarification of archival grade disks.
MP29 Super-trellis-based noise predictive detection for
high-density optical storage, Xiao-Ming Chen, Oliver Theis,Deutsche Thomson oHG (Germany) [TD05-88]
Super-trellis based noise prediction was investigated for highdensity optical storage.
Performance gain obtained by the proposed detector increases
as storage density increases.
MP30 Channel coding and signal detection for multi-level
DVD player system, Hua Hu, Yi Tang, Haibo Yuan, Longfa Pan,
Tsinghua Univ. (China) [TD05-89]
Channel coding and signal detection for multi-level DVD player
system are introduced, including error correction code,
modulation code, timing recovery and adaptive PRML detection.
MP31 Error-correcting coded indices for multimodebalanced conservative codes for holographic storage,
Yongguang Zhu, Ivan J. Fair, Univ. of Alberta (Canada)[TD05-90]
We present two error-correcting coding schemes for providing
error protection for the control array indices required in
multimode balanced conservative codes for holographic storage.
MP32 An improved chase decoder for turbo productcodes over partial-response channels, Zhiliang Qin,
Songhua Zhang, Kui Cai, Xiaoxin Zou, Data Storage Institute(Singapore) [TD05-91]
An improved Chase decoder is proposed based on the conceptof local search neighborhood for turbo product codes overpartial-response channels.
MP33 Two-dimensional 5:8 modulation code for holographic
data storage, Jinyoung Kim, Bongil Lee, Jaejin Lee, Soongsil
Univ. (South Korea) [TD05-92]
The proposed two-dimensional 5:8 modulation code is very
simple and removes all the isolated 2D ISI patterns.

-17-

MP34 Hybrid image processing for holographic data
storage system, Jang Hyun Kim, Hyun-Seok Yang, Jin-Bae
Park, Young-Pil Park, Yonsei Univ. (South Korea) [TD05-93]
In this paper, we propose hybrid image processing method inholographic data storage system.
MP35 Gaussian sum approximation approach to Blu-ray
disk channel equalization, Gyuyeol Kong, Hyunmin Cho,
Sooyong Choi, Yonsei Univ. (South Korea) [TD05-94]
A new equalization method is proposed, which incorporates theGaussian Sum Approximation into a Kalman filtering framework
to mitigate inter-symbol interference in optical recording
channels.
MP36 One-dimensional PRML detection with two-dimensional
equalizer for holographic data storage, Jinyoung Kim,
Donghyuk Park, Jaejin Lee, Soongsil Univ. (South Korea)[TD05-95]
We present a partial response maximum likelihood (PRML)
detection with two-dimensional equalizer scheme for holographic
data storage channel.
MP37 Optical recording channel equalization using abilinear recursive polynomial system, Hyunmin Cho,
Gyuyeol Kong, Sooyong Choi, Yonsei Univ. (South Korea)[TD05-96]
A new equalizer based on bilinear recursive polynomial models
is proposed to improve the performance and simplify the
structure of the conventional equalizers for high density opticalchannels.
MP38 Sum-product decoding of multiple-parallel-concatenatedsingle-parity-check codes over partial-response channels,
Zhiliang Qin, Xiaoxin Zou, Kui Cai, Songhua Zhang, Data
Storage Institute (Singapore) [TD05-97]
We propose an efficient implementation of a serialized sumproduct decoding algorithm for multiple-parallel-concatenatedsingle-parity-check (M-PC-SPC) codes over partial-response
channels.
MP39 RMTR Constrained Parity-Check Codes for HighDensity Blue Laser Disk Systems, Cai Kui, Kees A. S.
Immink, Songhua Zhang, Zhiliang Qin, Xiaoxin Zou, Data
Storage Institute (Singapore) [TD05-98]
New constrained codes that satisfy the repeated minimumtransition runlength (RMTR) constraint and the parity-check(PC) constraint are proposed for high-density blue laser disk
systems.
MP40 Parallel multitrack Viterbi detector for 2D opticalstorage systems, Timothy S. Yao, The Univ. of Texas at El
Paso; Lee Yang, Qingyang Wu, Semiconductor Manufacturing
International Corp. (China) [TD05-99]
The proposed parallel Viterbi detector can enhance the bit
detection performance of the two-dimensional optical systemand processing speed. The algorithm can also be applied to the
3D recording system.
MP41 Super-resolution near-field disk with phasechange Sn-doped GST mask layer, Irene Lee, Agency for
Science, Technology and Research (Singapore); K. T. Yong,
Chee Lip Gan, Nanyang Technological Univ. (Singapore); S. M.
Daud, Agency for Science, Technology and Research(Singapore); L. H. Ting, Agency for Science, Technology andResearch (Singapore); L. P. Shi, Agency for Science,-18-

Technology and Research (Singapore) [TD05-100]
A new mask layer of Sn7.0Ge20.6Sb20.7Te51.7 was developed
and used on Super-resolution near-field phase change opticaldisks. The thermal and optical properties of the mask layer
were investigated. The recording performance of the new
structure is discussed.
MP42 Nonlinear modeling of super-resolution near-fieldstructure, Manjung Seo, Sungbin Im, Jaejin Lee, Soongsil Univ.
(South Korea) [TD05-101]
This paper presents a nonlinear modeling of Super-RENS(Super-Resolution Near Field Structure) read-out signal usingneural networks. The experiment results indicate that the NARX
(Nonlinear AutoRegressive eXogenous) model considered in thisstudy is superior to the NLMS (Normalized Least Mean Square)
FIR (Finite Impulse Response) adaptive filter, which is one oflinear modeling approaches.
Posters: Postdeadline
A selection of post deadline poster papers will be included in
the Final Technical Program giving the participants theopportunity to hear new and significant material in rapidly
advancing areas.

[SESSION MC: Special Session: Nano-Photonics]
Monarchy Ballroom, 3:30 to 6:30 pm
Session Chair: Masud Mansuripur, College of Optical
Sciences/The Univ. of Arizona (USA); Kevin R. Curtis, InPhase
Technologies Inc. (USA)MC1 3:30 pm: Recent progress in photonic crystals for
manipulation of photons (Invited Paper), Susumu Noda,
Kyoto Univ. (Japan) [TD05-10]
Recent progresses in photonic crystals are reviewed. First of all,ultra-high Q nanocavity and its dynamic control are discussed.
Then, a very unique photonic crystal laser operating at blueviolet wavelengths will be described.
MC2 4:00 pm: Nano optics (Invited Paper), Marko Loncar,
Harvard Univ. (USA) [TD05-11][Coffee Break]Queen’s Ballroom, 4:30 to 5:00 pm
MC3 5:00 pm: Optical manipulation of microscopic containers
for chemistry with single molecules (Invited Paper),
Kristian Helmerson, Carlos Mariscal-Lopez, Jianyong Tang, Rani
B. Kishore, National Institute of Standards and Technology(USA) [TD05-12]
We detect and perform chemistry with only a few number ofmolecules confined in submicron-sized water droplets, which
can be manipulated with optical tweezers.
MC4 5:30 pm: Applications of C-apertures to optical data
storage (Invited Paper), Lambertus Hesselink, J. B. Leen, Paul
Hansen, Yao-Te Cheng, Xiaobo Yin, Yin Yuen, Stanford Univ.
(USA) [TD05-13]
This invited paper describes our latest work towards fully
describing the operation of C-aperture light sources and using
these sources to write nano-sized marks on optical recording
media. During the last decade we have developed and refined ahighly efficient nano-sized aperture that, under ideal conditions,increases power throughput by three orders of magnitude
compared with round and square apertures producing the same
optical spot size. As presented in ODS 2007, these apertures-19-

can be mounted on a solid state laser to produce a very highintensity nano-beam having a size of less than 80 nm [1]. In
this paper we discuss the theoretical and practical aspects ofapplying C-apertures to optical data storage as well as ourlatest results related to using C-shaped nano apertures for
optical data storage.
MC5 6:00 pm: Nanophotonics-based optical data storage(Invited Paper), Min Gu, Swinburne Univ. of Technology(Australia) [TD05-14]
This talk will present our recent advance in the nanoparticleassisted optical data storage technology where the information
can be stored in five dimensions.

Tuesday 15 July
[SESSION TuA: Drive Technologies]
Monarchy Ballroom, 8:30 to 10:00 am
Session Chair: Ryuichi Katayama, NEC Corp. (Japan);
Kyunggeun Lee, SAMSUNG Electronics Co., Ltd. (South
Korea)
TuA1 8:30 am: Readout-signal amplification by homodyne
detection scheme (Invited Paper), Hideharu Mikami, Takeshi
Shimano, Takahiro Kurokawa, Tatsuro Ide, Jiro Hashizume,
Koichi Watanabe, Harukazu Miyamoto, Hitachi, Ltd. (Japan)[TD05-15]
Optical signal amplification by using homodyne detection
scheme was newly proposed and demonstrated experimentally.
Optical pickup for reliably obtaining amplified optical disk
readout-signal was designed.
TuA2 9:00 am: System technology for achieving 200GB
drive with 5-layer disc (Invited Paper), Kyunggeun Lee, Inoh
Hwang, Nakhyun Kim, Hyun-Soo Park, Hui Zhao, Tao Hong,
Insik Park, SAMSUNG Electronics Co., Ltd. (South Korea)[TD05-16]
We report the feasibility for achieving 200GB with 40GB per
layer and 5-layer disc for the first time. bER of lower than 10-3
were experimentally obtained respectively using this new data
reproducing scheme which shows the possibility of reducing oneorder of bER. With more improvement of media characteristics,
less than 10-4 of bER can be achieved.
TuA3 9:30 am: Stable rotation of optical disks over 15000
rpm, Tomoharu Mukasa, Naofumi Goto, Takeharu Takasawa,
Yoshiyuki Urakawa, Nobuhiko Tsukahara, Sony Corp. (Japan)[TD05-17]
We confirmed high-speed-rotation of disks without vibrations
up to 20000 rpm and tracking servo control at 17000 rpm using
the double-boosted high-gain servo controller.
TuA4 9:45 am: A high-density recording by a near-field
optical system using a medium with a top layer with ahigh refractive index, Ariyoshi Nakaoki, Kimihiro Saito,
Takeshi Yamasaki, Tomomi Yukumoto, Tsutomu Ishimoto,
Sunmin Kim, Takao Kondo, Takeshi Mizukuki, Osamu Kawakubo,
Sony Corp. (Japan); Miwa Honda, Noriyasu Shinohara, Norihiko
Saito, JSR Corp. (Japan) [TD05-18]
A coated medium comprised of resin with a high refractive
index of 1.83 was examined using a near-field optical discsystem of NA 1.84.

[Coffee Break]Queen’s Ballroom, 10:00 to 10:30 am-20-[SESSION TuB: Components and Hybrid Recording]Monarchy Ballroom, 10:30 am to 12:30 pm
Session Chair: Paul J. Wehrenberg, Apple Computer, Inc.
(USA); No-Cheol Park, Yonsei Univ. (South Korea)
TuB1 10:30 am: Liquid crystal active optics and its
application to optical pickups (Invited Paper), Nobuyuki
Hashimoto, Citizen Technology Ctr. Co., Ltd. (Japan) [TD05-19]
We describe optical properties of liquid crystals for optical
pickups, liquid crystal GRIN lenses and liquid crystals with subwavelength structures.
TuB2 11:00 am: A novel deformable mirror for sphericalaberration compensation, Sunao Aoki, Masahiro Yamada,Tamotsu Yamagami, Sony Corp. (Japan) [TD05-20]
By using conventional MEMS processes, we have successfully
developed a high accuracy and easily controllable deformablemirror with simple structure.
TuB3 11:15 am: Single longitudinal mode blue-violet
laser diode for data storage, Christophe Moser, Ondax, Inc.
(USA); Lawrence Ho, Frank Havermeyer, Ondax, Inc (USA)[TD05-21]
Experimental demonstration of a single mode longitudinal TOcan blue-violet laser with over 1 meter coherence length.
TuB4 11:30 am: Designs and tolerances of two-element
NA 0.8 objective lenses for page-based holographic data
storage systems, Yuzuru Takashima, Lambertus Hesselink,
Stanford Univ. (USA) [TD05-22]
Two-element NA 0.8 objectives, usable for both holographic
and surface recordings, are designed in conjunction withanalysis of optical tolerances for holographic removable media
systems.
TuB5 11:45 am: The challenges of heat assisted magnetic
recording head integration (Invited Paper), Cal Hardie,
Duane C. Karns, William A. Challener, N. J. Gokemeijer, Tim
Rausch, Michael A. Seigler, Edward C. Gage, Seagate
Technology LLC (USA) [TD05-23]
The explosion of digital content has created a global demand
for storage products that will only increase as the world
becomes more digitally oriented and connected. This everincreasing demand for storage capacity has placed significant
challenges on the magnetic recording industry. To extend
recording densities to beyond 1Tb/in2, the industry must findsolutions to the superparamagnetic limit which imposes a
signal-to-noise ratio, thermal stability, and writability tradeoff.
Heat assisted magnetic recording (HAMR) is a technology forachieving these high areal densities. A successful integration of
the HAMR technology will be shown. This integration process
is compatible with existing thin film magnetic recording
fabrication which includes thin film wafer process, slider lapping,and head/gimbal assembly. A demonstration of 200Gb/in2
areal density will be shown as well as a path to increase theareal density capability of HAMR using Near Field Transducer(NFT) technology.
TuB6 12:15 pm: HAMR head with spot size converter andtriangular aperture, Masakazu Hirata, Manabu Oumi, Majung
Park, Seiko Instruments Inc. (Japan) [TD05-24]
This HAMR head has affinity to conventional HDD head and highthroughput integrated optics with spot size converter, triangularaperture and mirror.

-21-

[Lunch Break]
12:30 to 2:00 pm[SESSION TuP: Poster Session II]
Queen’s Ballroom, 2:00 to 3:30 pm
Session Chairs: Tuviah Ed Schlesinger, Carnegie Mellon Univ.
(USA); Yoshimi Tomita, Pioneer Corp. (Japan); Yoshimasa
Kawata, Shizuoka Univ. (Japan)
TuP1 Misalign compensation and equalization for holographic
data storage, Haksun Kim, Pilsang Yoon, Joo Youn Park,
Heungsang Jung, Daewoo Electronics Corp., Ltd. (South
Korea); Gwitae Park, Korea Univ. (South Korea) [TD05-102]
In this paper, misalign compensation and equalization forholographic data storage is developed and evaluated.
Experimental results are shown to verify the proposed
algorithm’s effectiveness.
TuP2 Improvement of bit error rate by FIR filter, Yuichiro
Sasa, Hiroshi Oto, Manabu Yamamoto, Tokyo Univ. of Science(Japan) [TD05-103]
This paper studies the effects of FIR filter based on genetic
algorithm. It is made clear that the best FIR coefficients can beprovided by genetic algorithm.
TuP3 Filter structures of write compensation for holographic
data storage systems, Takaya Tanabe, Ryu Suzuki, Iwao
Hatakeyama, Ibaraki National College of Technology (Japan)[TD05-104]
High pass filters of write compensation are compared andevaluated in simulations. The write compensation with fivepixel pattern shows the best in SNR.
TuP4 Inter-page cross-talk noise in collinear holographic
memory, Tsutomu Shimura, Masaru Terada, Yojiro Sumi,
Ryushi Fujimura, Kazuo Kuroda, The Univ. of Tokyo (Japan)[TD05-105]
We revealed that signal-to-noise ratio of multiplexed holographic
memory is inversely proportional to square root of themultiplied recorded pages theoretically as well as numericalsimulation.
TuP5 Design and test of channel board for holographic
data storage, Pilsang Yoon, Daewoo Electronics Corp., Ltd.
(South Korea) and Korea Univ. (South Korea); Haksun Kim, Joo
Youn Park, Heungsang Jung, Daewoo Electronics Corp., Ltd.
(South Korea); Gwitae Park, Korea Univ. (South Korea)[TD05-106]
The hardware channel board for holographic data storage has
been designed and implemented with FPGA. A data interface
between PC and channel board was adopted in the channelboard for data interface. An experiment for real-time recording
and reading was performed successfully.
TuP6 Tracking servo control using pole placement basedon Luenberger observer for holographic data storage
system, Yong Hee Lee, Sang-Hoon Kim, Jang Hyun Kim, HyunSeok Yang, Young-Pil Park, Yonsei Univ. (South Korea); Joo
Youn Park, Daewoo Electronics Corp., Ltd. (South Korea)[TD05-107]
In this paper, we focus on effects of radial deviation on the disk
and propose a tracking error compensation method for theholographic data storage system.
TuP7 Tilt error measurement and compensation method
for the holographic data storage system, Sang-Hoon Kim,

-22-

Jang Hyun Kim, Yong Hee Lee, Hyun-Seok Yang, Yonsei Univ.
(South Korea); Joo Youn Park, DAEWOO Electronics Corp.
(South Korea); Young-Pil Park, Yonsei Univ. (South Korea)[TD05-108]
Tilt error measurement system using external photo detector issuggested and measuring experiments are conducted. A servo
controller to compensate tilt error is designed and theperformance of it is confirmed.
TuP8 Design of a relay Lens with telecentricity inholographic storage system, Yung Sung Lan, National Chiao
Tung Univ. (Taiwan); Kuang-Vu Chen, Ping-Jung Wu, WenHung Cheng, Chih-Cheng Hsu, Chin-Tsia Liang, Kuo-Chi Chiu,
Tzuan-Ren Jeng, Industrial Technology Research Institute(Taiwan) [TD05-109]
In this paper, we revealed a doubly telecentric Fourier 4f Relay
for the holographic recording system, which is including six
lenses and a PBS. It provides a zero distortion and the
wavefront error within 1/4λ (λ=532 nm).
TuP9 Optimal aperture size for maximizing the capacityof holographic data storage systems, Oliver Malki, Frank
Przygodda, Joachim Knittel, Heiko Trautner, Hartmut Richter,
Deutsche Thomson oHG (Germany) [TD05-110]
Determination of the optimal spatial filtering of the object beamby an aperture placed in the focal plane in order to optimize thestorage capacity of a holographic data storage system.
TuP10 Angular interval scheduling for angle-multiplexed
holographic data storage, Nobuhiro Kinoshita, Tetsuhiko
Muroi, Norihiko Ishii, Koji Kamijo, Naoki Shimidzu, NHK Science& Technical Research Labs. (Japan) [TD05-111]
We demonstrate an angular interval scheduling for closely
stacking holograms. With our scheduling for multiplex numberof 300, low bERs across all datapages were obtained.
TuP11 Shift selectivity of the collinear holographic storage
system, Ye-Wei Yu, Chih-Yuan Cheng, Shu-Ching Hsieh, TunChien Teng, Ching-Cherng Sun, National Central Univ. (Taiwan)[TD05-112]
The paraxial solution of the shift selectivity of the collinear
holographic storage system is proposed, which is a powerfultool for simulation.
TuP12 Isoplanatic lens design for phase conjugate storage
systems, Bradley J. Sissom, Alan C. Hoskins, Tolis Deslis, Kevin
R. Curtis, InPhase Technologies Inc. (USA) [TD05-113]
A new lens design concept for holographic data storage isintroduced that improves phase conjugation and enables
relaxed assembly tolerances and asymmetric reader/writerarchitectures.
TuP13 Focus sensing method using far-field diffracted
waves and its application to holographic data discs, Teruo
Fujita, Hayato Horikoshi, Fukui Univ. of Technology (Japan)[TD05-114]
A far-filed focus sensor was studied by simulation andexperiment. A way to suppress the offset of this sensor andoptics implemented with it for holographic discs are proposed.
TuP14 Aberration holograms and multiplexing: how tomanage spherical aberration in microholographic data
storage, Enrico Dietz, Jonas Gortner, Sven Frohmann, Alan
Guenther, Jens Rass, Susanna Orlic, Technische Univ. Berlin(Germany) [TD05-115]
We investigate the impact of spherical aberration on microholographic-23-

storage and present the concept of so-called aberration hologramsand experimental results that demonstrate its viability.
TuP15 Ultra-high density holographic search engine using
sub-Bragg and sub-Nyquist recordings, Joby Joseph, Indian
Institute of Technology Delhi (India); David A. Waldman, DCE
Aprilis, Inc. (USA) [TD05-116]
We propose and demonstrate a holographic data storage device
meant for search only purposes, having exceptionally huge data
density through sub-Bragg and sub-Nyquist holographic
recordings.
TuP16 Detection of reproduced image distortion using
FFT cross-correlation method in holographic memory,
Yuta Kajiwara, Takumi Sano, Manabu Yamamoto, Tokyo Univ.
of Science (Japan) [TD05-117]
This paper studies the analysis method of reproduced image
distortion. The image distortion was detected by the marker
positions in the data area using FFT cross-correlation method.
TuP17 Tilt compensation method for holographic data
storage, Sangwoo Ha, Jae-Sung Lee, Na Young Kim, JeongKyo Seo, In-Ho Choi, Byung-Hoon Min, LG Electronics Inc.
(South Korea) [TD05-118]
In this paper, we propose the way to detect and compensate
the radial/tangential disc tilt. The compensation result by thismethod is also demonstrated.
TuP18 Dynamic recording and readout of micro-holograms
in GE dye-doped thermoplastic, Z. Ren, V. P. Ostroverkhov,
X. Shi, M. A. Cheverton, J. Lopez, B. L. Lawrence, M. R. Durling,
GE Global Research (USA) [TD05-119]
We have implemented recording and readout of microholograms in dye-doped thermoplastic in our new dynamic
system that utilizes five-axial servos to compensate rotating
tilting/run-out.
TuP19 Subwavelength focus by radial polarization throughmetallic thin film with annular illumination, Tzu-HsiangLan, Chung-Hao Tien, National Chiao Tung Univ. (Taiwan)[TD05-120]
With objective of NA = 0.75 and 85% apodized annular pupil, anon-diffraction focused beam has FWHM of 0.37λ and morethan 2λ penetration depth.
TuP20 Surface plasmon antenna nano-source, Haifeng
Wang, Baoxi Xu, Chong-Tow Chong, Data Storage Institute(Singapore) [TD05-121]
A 30nm light spot is generated by illuminating a novel surface
plasmon optical antenna with a micron sized focused red lightwith a wavelength of 650nm.
TuP21 Picometer-scale accuracy in position measurementsof dots in a 31 G dot/in2 pattern, Donald A. Chernoff, David L.
Burkhead,
Advanced
Surface
Microscopy,
Inc.
(USA)
[TD05-122]
Picometer scale accuracy in position measurements using
standardcommercial
AFM
and
SEM
with
offlinecalibration/measurement software.
Measured Dot pitch
143.895 ± 0.040 by AFM.
TuP22 Study on transparency mechanism of bimetallic
Bi/In film, Qian Liu, Sihai Cao, Chuanfei Guo, Zhuwei Zhang,
Yongsheng Wang, Junjie Miao, The National Ctr. for
Nanoscience and Technology of China (China) [TD05-123]
Transparent mechanism of Bi/In film as potential storage-24-

medium was investigated. Oxidation and laser ablation were
demonstrated to be main reasons for the transparent
conversion.
TuP23 Strategies for employing nano-heterostructures ina near-field enhanced super-resolution optical disk, Yang
Wang, Qingling Qu, Yiqun Wu, Fuxi Gan, Shanghai Institute of
Optics and Fine Mechanics (China) [TD05-124]
Strategies for employing nano-heterostructures in a near-fieldenhanced super-resolution optical disk was proposed andnumerically investigated.
TuP24 Recovery and reconstruction of the intensity
distribution of nano-sized light field obtained with NSOM,
HongXing Yuan, Baoxi Xu, M. D. Sofian, Chong-Tow Chong,
Data Storage Institute (Singapore) [TD05-125]
Deconvolution techniques is adopted to recover and reconstruct
the NSOM for correct characterization of nano-sized light field.
Deviation with and without correction is also presented.
TuP25 Pupil plane characteristics and filtering for optical
data storage using circular polarization, Junyeob Yeo,
Moon-Seok Kim, Narak Choi, Jaisoon Kim, Seoul National Univ.
(South Korea); Tom D. Milster, College of Optical Sciences/The
Univ. of Arizona (USA) [TD05-126]
Pupil plane beam characteristics and filtering at high-NA andcircular polarization are investigated in order to achieve readout
signal enhancement.
TuP26 Aberration compensation in near field optics for
multi-layer data storage, Kwan-Hyung Kim, Jaisoon Kim,
Kitak Won, Hyeong-Ryeol Park, Narak Choi, Seoul National Univ.
(South Korea); Sam-Nyol Hong, Jeong-Kyo Seo, LG Electronics
Inc. (South Korea); Kwang-Sup Soh, Seoul National Univ.
(South Korea) [TD05-127]
The electric component and lens systems are investigated inorder to apply for multi-layer data storage in NFR system withhigh NA.
TuP27 GaP solid immersion lens based on diffraction,
Youngsik Kim, Jun Zhang, Thomas D. Milster, College of Optical
Sciences/The Univ. of Arizona (USA) [TD05-128]
Hybrid solid immersion lens system (SIL) with a spherical lens
attached micro gallium phosphide SIL and a diffractive opticalelement, and its aberration correction mechanisms are
discussed.
TuP28 Assembly and evaluation of SIL optical head forhigh NA cover-layer incident near-field recording, YongJoong Yoon, Taeseob Kim, Cheol-Ki Min, Wan-Chin Kim, NoCheol Park, Young-Pil Park, Yonsei Univ. (South Korea); TaoHong, Kyunggeun Lee, SAMSUNG Electronics Co., Ltd. (South
Korea) [TD05-129]
In this paper, we show the assembly and evaluation results of
the SIL optical head with the high refractive index cover layer
disc and compare them with simulation ones. Through thisresearch we can improve the effective NA as 1.84 which is thehighest NA that has been reported and we can also increase thedata recording density per layer such as the surface recording
NFR in cover layer incident NFR.
TuP29 Improvement of protection process using observer,Hyun-Woo Hwang, Sang-Hoon Kim, Joong-Gon Kim, Tae-Wook
Kwon, Hyun-Seok Yang, No-Cheol Park, Young-Pil Park, Yonsei
Univ. (South Korea); Jeong-Kyo Seo, In-Ho Choi, Byeong-Hoon
Min, LG Electronics Inc. (South Korea) [TD05-130]-25-

We propose an improved protection process with a modeswitching servo method using a Luenberger observer. The
protection process based on velocity and gap distance is more
powerful than the protection process based only on the gap
distance.
TuP30 Improved air gap controller for SIL based nearfield recording servo system, Joong-Gon Kim, Min-Seok
Kang, Won-Ho Shin, No-Cheol Park, Hyun-Seok Yang, Young-Pil
Park, Yonsei Univ. (South Korea) [TD05-131]
This paper describes improved gap controller for near fieldrecording system using an internal model principle and a deadzone controller. Gap control system is susceptible todisturbances due to small air gap. Therefore, air gap controller
should have effective disturbance rejection performance.
TuP31 Effects of surface and mechanical properties ofcover-layer on near-field optical recording, Jin-Hong Kim,
Jun-Seok Lee, Jungshik Lim, Ki-Chang Song, Jung-Kyo Seo, LG
Electronics Inc. (South Korea) [TD05-132]
Several types of cover-layers for NFR media were prepared andcharacterized.
TuP32 Design of compatible optics for near-field recording
and Blu-ray disc using relay lens, Hyun Choi, Jong-Pil Kim,
Yong-Joong Yoon, Wan-Chin Kim, No-Cheol Park, Young-Pil
Park, Yonsei Univ. (South Korea) [TD05-133]
We designed compatible optics for solid immersion based nearfield recording system and Blu-ray disc using the relay lens.
TuP33 Collision between media surface and solid immersion
lens in near-field recording, Hyokune Hwang, Jinmoo Park,
Sung Hoon Lee, Jung-Kyo Seo, Seung Hun Yoo, In-Ho Choi,
Byung-Hoon Min, LG Electronics Inc. (South Korea) [TD05-134]
Harsh collision between media surface and SIL could makepermanent deformation causing optical issues. Research toovercome these issues is described in this paper.
TuP34 The near-field optical module and the tilt compensation
method of gap servo near-field recording system, Do-Hyeon
Son, Bong-Sik Kwak, Mi Hyeon Jeong, In Gu Han, Jeong-Kyo
Seo, In-Ho Choi, Byung-Hoon Min, LG Electronics Inc. (South
Korea) [TD05-135]
In this paper, we present the latest results of the LGE NF
optical module and the tilt compensation method applying for
the NF deck system.
TuP35 L10 ordering of (001)-oriented FePt thin films andits possible application in hybrid recording, Bin Ma,
Chaolin Zha, Zongzhi Zhang, Qingyuan Jin, Fudan Univ. (China)[TD05-136]
The L10 ordered phase has been formed in FePt films,
deposited on heated MgO substrate or on SrTiO3, MgO and a 1
nm-FeOx underlayered Si substrate. FePt/TbFeCo bilayered
structure is also discussed.
TuP36 Nano-optical characteristics of double-sided grating
structure for HAMR application, Dong-Soo Lim, Hyun-Suk Oh,
Young-Joo Kim, Yonsei Univ. (South Korea) [TD05-137]
The surface plasmon phenomenon of double-sided grating
structure with nano-slit aperture was studied to understand theenhancement of near-field optical throughput for HAMR
application.
TuP37 Magnetic and magneto-optical properties of hybrid
recording media on porous alumina underlayer, Junbing Yan,

-26-

Zuoyi Li, Fang Jin, K. F. Dong, Gengqi Lin, X. S. Miao,
Huazhong Univ. of Science and Technology (China) [TD05-138]
A self-ordered hexagonal array of nanopores has been
fabricated by anodizing a thin film of Al on the glass, the hybrid
recording media were sputtered on the porous alumina
underlayer, the magnetic properties and magneto-opticalproperties of TbFeCo film on this underlayer were studied as an
example.
TuP38 Study of recorded mark width change with laser
power in HAMR, Baoxi Xu, HongXing Yuan, M. D. Sofian, RongJi, Jun Zhang, Qide Zhang, Chong-Tow Chong, Data Storage
Institute (Singapore) [TD05-139]
The dependence of the recorded mark width on the laser power
for heat assisted magnetic recording is studied experimentallyand theoretically.
TuP39 Near-field optical coupling and enhancement in
the surface plasmon assisted HAMR (SPAH) media, DongSoo Lim, Young-Joo Kim, Yonsei Univ. (South Korea)[TD05-140]
New structure of ‘surface plasmon assisted HAMR (SPAH)
media’ was studied to increase the near-field optical throughput
with metal and dielectric interface in magnetic media.
TuP40 Design and performance evaluation of light delivery
for heat-assisted magnetic recording, Sung-Mook Kang,
Yonsei Univ. (South Korea); Eun-Hyung Cho, Sung-Dong Suh,
Jin-Seung Sohn, Samsung Advanced Institute of Technology(South Korea); Lambertus Hesselink, Stanford Univ. (USA); NoCheol Park, Young-Pil Park, Yonsei Univ. (South Korea)[TD05-141]
we present a description of the design, fabrication andevaluation of light delivery using a C-shaped nano-aperture forheat assisted magnetic recording
TuP41 Patterning for ultra-high density multi-dimensional
multi-level ROM storage, Jia Y. Sze, Luping Shi, Data Storage
Institute (Singapore); Diana N. Sutanto, Nanyang Technological
Univ. (Singapore); Chun Yang Chong, Jianming Li, Gaoqiang
Yuan, Lung Tat Ng, Data Storage Institute (Singapore); CheeLip Gan, Nanyang Technological Univ. (Singapore); Chong-Tow
Chong, Data Storage Institute (Singapore) [TD05-142]
The paper examined the patterning methodology using phasechange materials for forming multi-depth pits. The design andfabrication of multi-depth pit for multi-dimensional multi-level
ROM disc was also investigated.
TuP42 Application of polynomial regression and re-sampling
method to estimate life time of optical disk, Kunimaro
Tanaka, Keisuke Fujiwara, Teikyo Heisei Univ. (Japan)[TD05-143]
Re-sampling and linear regression is used for optical disk life
estimation. However, Arrhenius plot bends sometimes.
Experimental result of application of polynomial regression isreported.
TuP43 Crystallization kinetics and recording mechanismsof a-Ge/Ni bilayer for write-once blue-ray disk, YungChiun Her, Jyun-Hung Chen, National Chung Hsing Univ.
(Taiwan) [TD05-144]
The crystallization kinetics and recording mechanism of a-Ge/Nibilayer recording film for write-once blue ray disk were studied.
TuP44 Preparation and optical storage properties of novel
metal hydrazone organic materials for recordable Blu-ray-27-

disc, Yiqun Wu, Zhimin Chen, Shanghai Institute of Optics andFine Mechanics (China) and Heilongjiang Univ. (China);
Donghong Gu, Yang Wang, Fuxi Gan, Shanghai Institute of
Optics and Fine Mechanics (China) [TD05-145]
New metal hydrazone organic materials as recording media forrecordable blu-ray disc have been presented. Optical, thermal
and recording properties were involved.
TuP45 Crystallization and melting kinetics of Zn-doped
fast-growth Sb70Te30 phase-change recording films,
Yung-Sung Hsu, National Chung Hsing Univ. (Taiwan)[TD05-146]
In order to obtain sufficiently high recording sensitivity andarchival stability, while maintain adequate initialization ability
for the rewritable optical memories, the optimum Zn
concentration in Sb70Te30 recording film should be locatedbetween 5.3 and 17.9 at.%.
TuP46 Crystallization time dependence on SbTe based
phase change films measured by rotating disc techniques,
Robert E. Simpson, Paul Fons, Alexander Kolobov, Masashi
Kuwahara, Junji Tominaga, National Institute of Advanced
Industrial Science and Technology (Japan) [TD05-147]
Dynamic measurements of growth dominated and nucleation
dominated materials are presented as a function of mark lengthand film depth. Bismuth doping of these films is found toincrease the crystallization rate of the growth dominatedmaterials through a corresponding decrease in the material’s
viscosity.
TuP47 Cyclability improvement on super-resolution BDlike ROM disks based on the high-contrast semiconductor
InSb, Joseph Pichon, Fabien Laulagnet, Marie-Françoise
Armand, Olivier Lemonnier, Bérangère Hyot, Bernard André,Commissariat à l'Energie Atomique (France) [TD05-148]
We present our recent improvements of InSb-based SuperResolution BD-like ROM disks in terms of cyclability, as
investigated by dynamic and static testing.
TuP48 Improvement of aerodynamic stability in flexible
optical disk system with cylindrically concaved stabilizer,
Yasunori Sugimoto, Shozou Murata, Yasutomo Aman, Masaru
Shinkai, Nobuaki Onagi, Ricoh Co., Ltd. (Japan); Daiichi Koide,
Yohimichi Takano, Haruki Tokumaru, Japan Broadcasting Corp.
(Japan) [TD05-149]
The effects of both disk thickness and material were
investigated in order to improve aerodynamic stability in
flexible optical disk system with cylindrically concaved stabilizer.
TuP49 Multi-level read-only DVD using signal waveformmodulation, Yi Tang, Jing Pei, Longfa Pan, Hua Hu, Haibo
Yuan, Buqing Zhang, Mingming Yan, Tsinghua Univ. (China)[TD05-150]
A novel multi-level read-only DVD using signal waveformmodulation is proposed and implemented on DVD platform. A
raw BER of less than 1e-4 is achieved.
Posters: Postdeadline
A selection of post deadline poster papers will be included in
the Final Technical Program giving the participants theopportunity to hear new and significant material in rapidly
advancing areas.

[SESSION TuC: Special Session: Applications]
Monarchy Ballroom, 3:30 to 6:30 pm-28-Session Chair: Susanna Orlic, Technische Univ.
(Germany); Mitsuru Irie, Osaka Sangyo Univ. (Japan)

Berlin

TuC1 3:30 pm: Toward adoption of optical disks forpreservation of digitized cultural heritage (Invited Paper),Kunimaro Tanaka, Teikyo Heisei Univ. (Japan) [TD05-25]
Digital archive is important for preservation and usage ofpresent culture. Recent status and requirement for optical disks
for this purpose is described.
TuC2 4:00 pm: Trends in the digital home: why'IMG0064.jpg' is the new blinking 12:00 (Invited Paper),Tim Rausch, S. Iren, D. Seekins, Ernest P. Riedel, Seagate
Technology LLC (USA) [TD05-26]
Technology has become more ubiquitous and accessible thanever before, but it still remains out of reach of many everyday
individuals. People struggle with technology and content
management in the home on a regular basis. Using design
research techniques, we went into the homes of families andspent time with them, observing their successes and failureswith digital data. As a result of the study we identified several
trends in the digital home and barriers between individuals andtheir technology.

[Coffee Break]Queen’s Ballroom, 4:30 to 5:00 pm
TuC3 5:00 pm: Applications for 4th generation opticalstorage (Invited Paper), Tuviah E. Schlesinger, Bruch H. Krogh,Tsuhan Chen, Carnegie Mellon Univ. (USA) [TD05-27]
Optical data storage provides inexpensive, removable, easily
replicated medium. Only applications requiring these will use
optical storage. Advanced imaging and control systems areapplications that could require the next generation of optical
data storage systems.
TuC4 5:30 pm: DVD-download (Invited Paper), Shoji
Taniguchi, Pioneer Corp. (Japan) [TD05-28]
DVD-Download provides a new distribution channel of DVDVideo discs via internet download and centralized production.
This paper describes its distribution models and format outline.
TuC5 6:00 pm: Optical storage in 2008: Where is thecompetition heading? (Invited Paper), Barry H. Schechtman,
Information Storage Industry Consortium (USA) [TD05-29]
Optical storage applications are discussed, and the status andoutlook are reviewed for other technologies that compete with
optical storage for these applications.

Wednesday 16 July
[SESSION WA: New and Related Technologies]
Monarchy Ballroom, 8:30 to 10:00 am
Session Chair: Thomas D. Milster, College of Optical
Sciences/The Univ. of Arizona (USA); Jooho Kim, SAMSUNGElectronics Co., Ltd. (South Korea)
WA1 8:30 am: Fundamental exploration of the solutions
for ultra-high density optical recording (Invited Paper),Luping Shi, Chong-Tow Chong, Boris S. Luk'yanchuk, Jianming
Li, Haifeng Wang, Gaoqiang Yuan, Jia Y. Sze, Data Storage
Institute (Singapore) [TD05-30]
The possible solutions to achieve ultra-high density optical
recording are explored fundamentally, including the ways
further reducing spot size to overcome diffraction limit,-29-

volumetric recording using real space, imagine space andparameter spaces, and making use of the interaction effect oflight and matters. The challenges and limitations are discussed.
WA2 9:00 am: Plasmonic nano-structures for optical data
storage, Masud Mansuripur, College of Optical Sciences/The
Univ. of Arizona (USA); Aramais R. Zakharian, Andrey
Kobyakov, Corning, Inc. (USA); Jerome V. Moloney, College of
Optical Sciences/The Univ. of Arizona (USA) [TD05-31]
We describe a method of optical data storage that relies on thesmall dimensions of metallic nano-structures and/or nanoparticles to achieve high storage densities. The resonant
behavior of these particles (as individuals and in small clusters)in the presence of ultraviolet, visible, and near-infrared lightmay be used to retrieve pre-recorded information using far-field
spectroscopic optical detection.
WA3 9:15 am: Towards femto-Joule nanoparticle phasechange optical memory, Nikolay I. Zheludev, Kevin F.
MacDonald, Andrey I. Denisyuk, Univ. of Southampton (United
Kingdom) [TD05-32]
Phase-change functionality in gallium nanoparticles offers an
innovative conceptual basis for the development of high density,
low energy, non-volatile optical memories.
WA4 9:30 am: Nanophotonic hierarchical hologram:demonstration of the physical hierarchy, Naoya Tate,
Wataru Nomura, The Univ. of Tokyo (Japan); Takashi Yatsui,Japan Science and Technology Agency (Japan); Makoto Naruse,
National Institute of Information and Communications
Technology (Japan) and The Univ. of Tokyo (Japan); Motoichi
Ohtsu, The Univ. of Tokyo (Japan) [TD05-33]
We experimentally demonstrated the concept of proposed"nanophotonic hierarchical hologram" which works both in
optical far-fields and near-fields. The hierarchy is attributed tonear-fields interactions.
WA5 9:45 am: Higher sensitivity for the analysis of bioentities with changes in thicknesses of multilayered
BioDVD structure, Gopinath Subash Chandra Bose, Awazu
Koichi, Kumar K. R. Penmetcha, Junji Tominaga, National
Institute of Advanced Industrial Science and Technology(Japan) [TD05-34]
Increased the sensitivity of optical based detection of biomolecular interactions on BioDVD surfaces with manipulationsof multilayered structure.

[Coffee Break]Queen’s Ballroom, 10:00 to 10:30 am[SESSION WB: Media and Applications]
Monarchy Ballroom, 10:30 am to 12:30 pm
Session Chair: Rie Kojima, Matsushita Electric Industrial Co.,
Ltd. (Japan); Chong-Tow Chong, Data Storage Institute(Singapore)
WB1 10:30 am: Challenge to snap shot structuralvisualization of the phase change (Invited Paper), Yoshito
Tanaka, The Institute of Physical and Chemical Research(Japan); Yoshimitsu Fukuyama, Nobuhiro Yasuda, Jungeun Kim,
Haruno Murayama, Shigeru Kimura, Japan Synchrotron
Radiation Research Institute (Japan); Kenichi Kato, The
Institute of Physical and Chemical Research (Japan); Shinji
Kohara, Japan Synchrotron Radiation Research Institute(Japan); Yutaka Moritomo, Tsukuba Univ. (Japan); Toshiyuki
Matsunaga, Rie Kojima, Noboru Yamada, Matsushita Electric-30-

Industrial Co., Ltd. (Japan); Hitoshi Tanaka, Japan Synchrotron
Radiation Research Institute (Japan); Masaki Takata, The
Institute of Physical and Chemical Research (Japan) [TD05-35]
The first time-resolved structure investigation of phase change
process of DVD materials was achieved by SR diffraction
experiment coupled with simultaneous photo reflectivity
measurement.
WB2 11:00 am: What is the origin of activation energy inphase-change film?, Junji Tominaga, Takayuki Shima, Paul
Fons, Masashi Kuwahara, Alexander Kolobov, Robert E.
Simpson, National Institute of Advanced Industrial Science andTechnology (Japan) [TD05-36]
We reveal and discuss the origin of the activation energy, which
initiates the transition from the amorphous to crystalline state,based on a GeSbTe-superlattice model by ab-initio local density
approximation.
WB3 11:15 am: Reliable measurement of optical constantsfor molten phase-change thin film, Daisuke Eto, Kazuhiko
Aoki, Shuichi Ohkubo, NEC Corp. (Japan) [TD05-37]
We found out optical constants of molten InSb thin film arenearly independent of thickness and interface layer material,
while melting point depends on thickness.
WB4 11:30 am: A two-color photopolymer system forhigh-capacity multilayer optical data storage, Benjamin A.
Kowalski, Robert R. McLeod, Timothy F. Scott, Univ. ofColorado at Boulder (USA) [TD05-38]
A novel two-color photopolymer system is demonstrated, which
suppresses polymerization at the periphery of recording while
maintaining high writing sensitivity at the focus. This enables
both increased storage density and increased signal via
suppression of out-of-focus exposure.
WB5 11:45 am: Phase aberration limits to three-dimensional
optical data storage in homogeneous media, Robert R.
McLeod, Univ. of Colorado at Boulder (USA) [TD05-39]
An analytic expression for the phase aberrations of multi-layer
optical storage disks is derived and used to calculate a limit on
the total number of layers.
WB6 12:00 pm: Applications of ODS technology to lithography(Invited Paper), Thomas D. Milster, College of Optical
Sciences/The Univ. of Arizona (USA) [TD05-40]

Thursday 17 July
[SESSION ThA: Coding and Signal Processing]Monarchy Ballroom, 8:30 to 10:00 am
Session Chair: Satoru Higashino, Sony Corp. (Japan); Seiji
Kobayashi, Sony Corp. (Japan)
ThA1 8:30 am: Signal-readout system for optical pickup
with homodyne detection scheme, Takahiro Kurokawa,
Hideharu Mikami, Tatsuro Ide, Koichi Watanabe, Harukazu
Miyamoto, Hitachi, Ltd. (Japan) [TD05-41]
We developed a signal-readout system for optical pickups using
a homodyne detection scheme. By using the system, a signal
amplification rate of 3.6 was obtained.
ThA2 8:45 am: Turbo equalization with RLL (1,9) and LDPC
code for SuperRENS ROM discs with 60nm minimum marklength, Oliver Theis, Xiao-Ming Chen, Dietmar Hepper, Gael
Pilard, Deutsche Thomson oHG (Germany) [TD05-42]
Low complexity super-trellis detection for an enhanced (1,9)-31-

RLL modulation code with application to turbo equalization fornext generation optical discs is presented
ThA3 9:00 am: Study of ITR-PLL with linearly constrained
adaptive pre-filter for high-density optical disc, Yoshiyuki
Kajiwara, Junya Shiraishi, Shoei Kobayashi, Tamotsu Yamagami,Sony Corp. (Japan) [TD05-43]
Digital Phase Lock Loop with Linearly Constraint Adaptive PreFilter has studied to improve qualities of phase error calculation
by adaptive equalized signal with enough stability.
ThA4 9:15 am: Adaptive writing strategy based on bitsindexed writing parameters, Hui Zhao, Hyun-Soo Park, Inoh
Hwang, Kyunggeun Lee, Insik Park, SAMSUNG Electronics Co.,
Ltd. (South Korea) [TD05-44]
A new bits-indexed writing parameters organization method
and an adaptive writing strategy are proposed. The
performance is proved by 40GB Blu-ray Disc experiment.
ThA5 9:30 am: Reduced state sequence estimation withlevel adaptation (RESSELA) for high density disc, HyunSoo Park, Hui Zhao, Inho Hwang, Kyunggeun Lee, Insik Park,SAMSUNG Electronics Co., Ltd. (South Korea) [TD05-45]
We report the new data reproducing scheme for high density
over 40GB with a commercial Blu-ray recordable disc. bER of
1x10-6 and 1.3x10-4 and 2.6x10-3 and 9x10-3 with 40GB,
45GB, 47.5GB and 50GB were experimentally obtained
respectively using this new data reproducing scheme whichshows the possibility of achieving 50GB with a commercial
single-layer Blu-ray disc.
ThA6 9:45 am: Analysis on SNR improvement by multitone demodulation, Atsushi Kikukawa, Hiroyuki Minemura,
Hitachi, Ltd. (Japan) [TD05-46]
SNR improvement by using multi-tone demodulation wastheoretically investigated. The input bandwidth and the ADC
clock jitter are the major factors that limit the efficiency[Coffee Break]Queen’s Ballroom, 10:00 to 10:30 am[SESSION ThB: Holographic I]
Monarchy Ballroom, 10:30 am to 12:30 pm
Session Chair: Lambertus Hesselink, Stanford Univ. (USA);
Tsutomu Shimura, The Univ. of Tokyo (Japan)
ThB1 10:30 am: Linear signal processing for a holographic
data storage channel using coherent addition (Invited Paper),Masaaki Hara, Kazutatsu Tokuyama, Kenji Tanaka, Kazuyuki
Hirooka, Atsushi Fukumoto, Sony Corp. (Japan) [TD05-47]
A linear channel model and linear signal processing areavailable for a holographic data storage channel when coherent
addition is applied in a reproduction process.
ThB2 11:00 am: Homodyne detection of holographic data
pages, Mark R. Ayres, Kevin R. Curtis, InPhase Technologies
Inc. (USA) [TD05-48]
A method for homodyne detection of holographic data pages ispresented.
The optical phase-matching problem is solved
algorithmically, rather than optically.
ThB3 11:15 am: Development of a coaxial holographic
data recording system (Invited Paper), Atsushi Fukumoto,Sony Corp. (Japan) [TD05-49]
Based on our recent progress in high-density and high datatransfer-rate recordings using coaxial holographic recording-32-

testers, the prospects for performance improvement in futuresystems are discussed.
ThB4 11:45 am: A reflective counter-propagating holographic
setup, Joachim Knittel, Oliver Malki, Frank Przygodda, Hartmut
Richter, Heiko Trautner, Deutsche Thomson-Brandt GmbH
(Germany) [TD05-50]
We present a reflective counter-propagating holographic setup
for optical data storage that makes efficient use of the laser
light.
ThB5 12:00 pm: Practical holography, Ken E. Anderson,
Edeline Fotheringham, Friso Schlottau, Paul C. Smith, Keith W.
Farnsworth, Jason R. Ensher, Kevin R. Curtis, InPhase
Technologies Inc. (USA) [TD05-51]
We review the evolution of InPhase Technologies’ holographic
storage drive and discuss technical obstacles that we haveovercome to bring our product to market.
ThB6 12:15 pm: Material consumption and crosstalkcharacteristics of different holographic storage concepts,
Frank Przygodda, Joachim Knittel, Oliver Malki, Heiko Trautner,
Hartmut Richter, Deutsche Thomson-Brandt GmbH (Germany)[TD05-52]
Three holographic data storage concepts (plane wave, collinear,counter-propagating beam setup) are investigated by numericalsimulations regarding their material consumption, diffraction
efficiency and crosstalk characteristics.

[Lunch Break]
12:30 to 2:00 pm[SESSION ThC: Holographic II and Super Resolution]
Monarchy Ballroom, 2:00 to 4:00 pm
Session Chair: Robert R. McLeod, Univ. of Colorado at
Boulder (USA); Satoru Tanaka, Pioneer Corp. (Japan)
ThC1 2:00 pm: Wobble alignment for angularly multiplexed
holograms, Mark R. Ayres, Alan C. Hoskins, Paul C. Smith,
John Kane, InPhase Technologies Inc. (USA) [TD05-53]
A method for dynamic alignment adjustment in an anglemultiplexed holographic storage system is presented.
A
wobble servo corrects readout beam angle, pitch, andwavelength.
ThC2 2:15 pm: Three-dimensional Fourier optics analysis
of holographic optical data storage systems, George
Barbastathis, Massachusetts Institute of Technology (USA)[TD05-54]
A theoretical method for analysis and design of holographic
memories is presented. The memory is expressed as a 3D pupil
in an imaging system. It is shown how practical memory
performance metrics, such as interpage---intrapage crosstalkand defocus tolerance, can be understood and optimized using
this approach.
ThC3 2:30 pm: Intra-signal modulation in holographic
memories, Mark R. Ayres, InPhase Technologies Inc. (USA);
Robert R. McLeod, Univ. of Colorado at Boulder (USA)[TD05-55]
An analysis of intra-signal noise in volume holography ispresented. Estimates of the coherent and incoherent limitingcases are derived for ASK and PSK modulation.
ThC4 2:45 pm: Sparse modulation codes for channel withmedia saturation, Lakshmi D. Ramamoorthy, Vijayakumar-33-

Bhagavatula, Carnegie Mellon Univ. (USA) [TD05-56]
Channel model with media saturation was built to simulate data
pages. We observed a trade off between the relative write
transfer rates and bit error rate.
ThC5 3:00 pm: Optical super-resolution through superoscillations (Invited Paper), Nikolay I. Zheludev, Univ. ofSouthampton (United Kingdom) [TD05-57]
Invited: To achieve optical sub-wavelength concentrations oflight beyond the near-field, the concept of super-oscillations
recently flagged by Berry and Popescu, and demonstrated byour group using a quasi-crystal array of holes, provides a viable
and less technologically challenging alternative to the approachbased on negative-index super-lenses exploiting recovery of theevanescent fields.
ThC6 3:30 pm: Comparison of a semiconductor and aphase-change material for application in a superresolution ROM disk, Gael Pilard, Larisa Pacearescu, Herbert
Hoelzemann, Christophe Féry, Deutsche Thomson oHG(Germany) [TD05-58]
Super-resolution ROM disks based on InSb or AIST were
manufactured. A bER of 1e-3 was found with InSb on random
patterns having 40nm channel bit length. We demonstrate why
the decoding with AIST is not possible.
ThC7 3:45 pm: Super resolution media with significantly
high read stability, Shuichi Ohkubo, Kazuhiko Aoki, Eiji
Kariyada, Daisuke Eto, NEC Corp. (Japan) [TD05-59]
Read stability of 1e+6 times has been confirmed with SuperResolution ROM media with phase change mask layer bydeveloping new protective and inter-face layers.

[Coffee Break]Queen’s Ballroom, 4:00 to 4:30 pm[SESSION ThD: Postdeadline Session]
Monarchy Ballroom, 4:30 to 5:30 pm
Session Chair: Barry H. Schechtman, Information Storage
Industry Consortium (USA); Junji Tominaga, National
Institute of Advanced Industrial Science and Technology(Japan)A selection of post deadline oral papers will be included in the
Final Technical Program giving the participants the opportunity
to hear new and significant material in rapidly advancing areas.

[Closing Remarks]
Monarchy Ballroom, 5:30 to 6:00 pm
ODS General Chairs: Kevin R. Curtis, InPhase Technologies
Inc. (USA); Luping Shi, Data Storage Institute (Singapore)
ISOM Program Committee Chair: Haruki Tokumaru, NHK
Science & Technical Research Labs. (Japan)-34-

Author Index
A
Akiyama, Reiko[TD05-64] MP5[TD05-82] MP23
[TD05-149] TuP48[TD05-51] ThB5
[TD05-148] TuP47[TD05-37] WB3[TD05-59] ThC7
[TD05-60] MP1[TD05-20] TuB2
[TD05-148] TuP47[TD05-48] ThB2
[TD05-53] ThC1
[TD05-55] ThC3

Aman, Yasutomo
Anderson, Ken E.
André, Bernard
Aoki, Kazuhiko
Aoki, Kazuko
Aoki, Sunao
Armand, Marie-FrançoiseAyres, Mark R.

B
Barbastathis, George
Bhagavatula, Vijayakumar
Bletscher, Warren L.
Boden, Eugene P.
Burkhead, David L.

[TD05-54] ThC2
[TD05-56] ThC4
[TD05-77] MP18
[TD05-6] MB3[TD05-122] TuP21

C
Cai, Kui[TD05-91] MP32
[TD05-97] MP38
[TD05-67] MP8[TD05-123] TuP22[TD05-85] MP26
[TD05-144] TuP43[TD05-109] TuP8
[TD05-27] TuC3
[TD05-88] MP29
[TD05-42] ThA2
[TD05-145] TuP44[TD05-112] TuP11[TD05-109] TuP8
[TD05-84] MP25
[TD05-13] MC4[TD05-122] TuP21[TD05-119] TuP18[TD05-109] TuP8
[TD05-141] TuP40[TD05-94] MP35
[TD05-96] MP37
[TD05-133] TuP32[TD05-118] TuP17[TD05-130] TuP29[TD05-134] TuP33[TD05-135] TuP34[TD05-127] TuP26[TD05-94] MP35
[TD05-96] MP37
[TD05-61] MP2[TD05-65] MP6[TD05-121] TuP20[TD05-125] TuP24[TD05-139] TuP38[TD05-142] TuP41[TD05-30] WA1

Cao, Liangcai
Cao, Sihai
Chen, Cheng-Huan
Chen, Jyun-Hung
Chen, Kuang-Vu
Chen, Tsuhan
Chen, Xiao-Ming
Chen, Zhimin
Cheng, Chih-Yuan
Cheng, Wen-Hung
Cheng, Xuemin
Cheng, Yao-Te
Chernoff, Donald A.
Cheverton, Mark A.
Chiu, Kuo-Chi
Cho, Eun-Hyung
Cho, Hyunmin
Choi, Hyun
Choi, In-Ho

Choi, Narak
Choi, Sooyong
Chong, Chong-Tow-35-

Chong, Chun Yang
Coblentz, Kenneth D.
Curtis, Kevin R.

[TD05-142] TuP41[TD05-3] MB1[TD05-113] TuP12[TD05-48] ThB2
[TD05-51] ThB5

D
Daud, S. M.
Denisyuk, Andrey I.
Deslis, Tolis
Dietz, Enrico[TD05-100] MP41
[TD05-32] WA3[TD05-113] TuP12[TD05-8] MB5[TD05-76] MP17
[TD05-115] TuP14[TD05-138] TuP37[TD05-79] MP20
[TD05-119] TuP18[TD05-3] MB1

Dong, K. F.
Dozor, David M.
Durling, Michael R.
Dvornikov, Alexander S.
E
Ensher, Jason R.
Eto, Daisuke[TD05-51] ThB5
[TD05-37] WB3[TD05-59] ThC7

F
Fair, Ivan J.
Farnsworth, Keith W.
Feid, TimoFéry, ChristopheFons, Paul

[TD05-90] MP31
[TD05-51] ThB5
[TD05-76] MP17
[TD05-58] ThC6
[TD05-147] TuP46[TD05-36] WB2[TD05-51] ThB5
[TD05-8] MB5[TD05-76] MP17
[TD05-115] TuP14[TD05-105] TuP4
[TD05-7] MB4[TD05-114] TuP13[TD05-143] TuP42[TD05-47] ThB1
[TD05-49] ThB3
[TD05-35] WB1

Fotheringham, Edeline
Frohmann, Sven

Fujimura, Ryushi
Fujita, Goro
Fujita, Teruo
Fujiwara, Keisuke
Fukumoto, Atsushi
Fukuyama, YoshimitsuG
Gage, Edward C.
Gan, Chee Lip

Guo, Chuanfei[TD05-23] TuB5
[TD05-100] MP41
[TD05-142] TuP41[TD05-124] TuP23[TD05-145] TuP44[TD05-8] MB5[TD05-115] TuP14[TD05-17] TuA3
[TD05-71] MP12
[TD05-145] TuP44[TD05-14] MC5[TD05-8] MB5[TD05-115] TuP14[TD05-123] TuP22

H
Ha, Sangwoo
Han, In Gu
Hanazawa, Makoto
Hansen, Delbert[TD05-118] TuP17[TD05-135] TuP34[TD05-60] MP1[TD05-77] MP18

Gan, Fuxi
Gortner, Jonas
Goto, Naofumi
Gruber, Matthias
Gu, Donghong
Gu, Min
Guenther, Alan

-36-

Hansen, PaulHara, Masaaki
Hardie, Cal
Hashimoto, Nobuyuki
Hashizume, Jiro
Hatakeyama, Iwao
Havermeyer, FrankHe, Qingsheng
Helmerson, KristianHendrix, Karen D.
Hepper, Dietmar
Her, Yung-Chiun
Hesselink, Lambertus[TD05-13] MC4[TD05-47] ThB1
[TD05-23] TuB5
[TD05-19] TuB1
[TD05-15] TuA1
[TD05-104] TuP3
[TD05-21] TuB3
[TD05-67] MP8[TD05-12] MC3[TD05-86] MP27
[TD05-42] ThA2
[TD05-144] TuP43[TD05-13] MC4[TD05-22] TuB4
[TD05-141] TuP40[TD05-62] MP3[TD05-4] MB2[TD05-24] TuB6
[TD05-47] ThB1
[TD05-21] TuB3
[TD05-58] ThC6
[TD05-18] TuA4
[TD05-61] MP2[TD05-127] TuP26[TD05-16] TuA2
[TD05-129] TuP28[TD05-68] MP9[TD05-7] MB4[TD05-114] TuP13[TD05-113] TuP12[TD05-53] ThC1
[TD05-86] MP27
[TD05-112] TuP11[TD05-109] TuP8
[TD05-146] TuP45[TD05-84] MP25
[TD05-89] MP30
[TD05-150] TuP49[TD05-134] TuP33[TD05-130] TuP29[TD05-45] ThA5
[TD05-16] TuA2
[TD05-44] ThA4
[TD05-148] TuP47

Hidaka, Motohiko
Higuchi, Takanobu
Hirata, Masakazu
Hirooka, Kazuyuki
Ho, Lawrence
Hoelzemann, Herbert
Honda, Miwa
Hong, Minghui
Hong, Sam-Nyol
Hong, Tao
Honma, Satoshi
Horigome, Toshihiro
Horikoshi, Hayato
Hoskins, Alan C.
Hruska, Curtis R.
Hsieh, Shu-Ching
Hsu, Chih-Cheng
Hsu, Yung-Sung
Hu, Hua

Hwang, Hyokune
Hwang, Hyun-Woo
Hwang, Inho
Hwang, Inoh
Hyot, Bérangère
I
Ide, Tatsuro
Iida, Tetsuya
Im, Sungbin
Immink, Kees A.
Inoue, Mitsuteru
Iren, S.
Irie, Mitsuru
Ishii, Norihiko
Ishikawa, Sayuri
Ishimoto, Tsutomu[TD05-15] TuA1
[TD05-41] ThA1
[TD05-4] MB2[TD05-101] MP42
[TD05-98] MP39
[TD05-60] MP1[TD05-26] TuC2
[TD05-87] MP28
[TD05-111] TuP10[TD05-82] MP23
[TD05-18] TuA4J
Jeng, Tzuan-Ren
Jeong, Mi Hyeon
Ji, Rong
Jin, Fang[TD05-109] TuP8
[TD05-135] TuP34[TD05-139] TuP38[TD05-138] TuP37-37-

Jin, Guofan
Jin, Qingyuan
Joseph, Joby
Jung, Heungsang[TD05-67] MP8[TD05-136] TuP35[TD05-116] TuP15[TD05-102] TuP1
[TD05-106] TuP5

K
Kajiwara, Yoshiyuki
Kajiwara, Yuta
Kalman, Erika
Kamijo, Koji
Kane, John
Kanemura, Takashi
Kang, Min-Seok
Kang, Sung-Mook
Kannan, Swetha
Kariyada, Eiji
Kasanavesi, Sashi K.
Katayama, Ryuichi
Kato, Kenichi
Katsumata, Akiyoshi
Kawakubo, Osamu
Khulbe, Pramod K.
Kikukawa, Atsushi
Kim, Haksun[TD05-43] ThA3
[TD05-117] TuP16[TD05-81] MP22
[TD05-111] TuP10[TD05-53] ThC1
[TD05-60] MP1[TD05-131] TuP30[TD05-141] TuP40[TD05-77] MP18
[TD05-59] ThC7
[TD05-77] MP18
[TD05-9] MB6[TD05-35] WB1[TD05-68] MP9[TD05-18] TuA4
[TD05-77] MP18
[TD05-46] ThA6
[TD05-102] TuP1
[TD05-106] TuP5
[TD05-126] TuP25[TD05-127] TuP26[TD05-93] MP34
[TD05-107] TuP6
[TD05-108] TuP7
[TD05-132] TuP31[TD05-92] MP33
[TD05-95] MP36
[TD05-133] TuP32[TD05-130] TuP29[TD05-131] TuP30[TD05-35] WB1[TD05-127] TuP26[TD05-16] TuA2
[TD05-118] TuP17[TD05-107] TuP6
[TD05-108] TuP7
[TD05-130] TuP29[TD05-18] TuA4
[TD05-129] TuP28[TD05-129] TuP28[TD05-133] TuP32[TD05-137] TuP36[TD05-140] TuP39[TD05-128] TuP27[TD05-79] MP20
[TD05-35] WB1[TD05-111] TuP10[TD05-12] MC3[TD05-72] MP13
[TD05-73] MP14
[TD05-110] TuP9
[TD05-50] ThB4
[TD05-52] ThB6
[TD05-7] MB4[TD05-43] ThA3
[TD05-31] WA2

Kim, Jaisoon
Kim, Jang Hyun

Kim, Jin-HongKim, Jinyoung
Kim, Jong-Pil
Kim, Joong-Gon
Kim, Jungeun
Kim, Kwan-Hyung
Kim, Nakhyun
Kim, Na Young
Kim, Sang-Hoon

Kim, Sunmin
Kim, Taeseob
Kim, Wan-Chin
Kim, Young-Joo
Kim, Youngsik
Kim, Yullin
Kimura, Shigeru
Kinoshita, Nobuhiro
Kishore, Rani B.
Kitano, Motoki
Knittel, Joachim

Kobayashi, Seiji
Kobayashi, Shoei
Kobyakov, Andrey-38-

Koda, Sokoh
Kodate, Kashiko[TD05-62] MP3[TD05-64] MP5[TD05-82] MP23
[TD05-35] WB1[TD05-34] WA5[TD05-149] TuP48[TD05-35] WB1[TD05-81] MP22
[TD05-147] TuP46[TD05-36] WB2[TD05-9] MB6[TD05-18] TuA4
[TD05-94] MP35
[TD05-96] MP37
[TD05-38] WB4[TD05-27] TuC3
[TD05-87] MP28
[TD05-98] MP39
[TD05-105] TuP4
[TD05-15] TuA1
[TD05-41] ThA1
[TD05-147] TuP46[TD05-36] WB2[TD05-135] TuP34[TD05-130] TuP29

Kohara, Shinji
Koichi, Awazu
Koide, Daiichi
Kojima, Rie
Kokenyesi, Sandor J.
Kolobov, Alexander
Komatsu, Yuichi
Kondo, Takao
Kong, Gyuyeol
Kowalski, Benjamin A.
Krogh, Bruch H.
Kubo, Takahiro
Kui, Cai
Kuroda, Kazuo
Kurokawa, Takahiro
Kuwahara, Masashi
Kwak, Bong-Sik
Kwon, Tae-Wook
L
Lan, Tzu-HsiangLan, Yung Sung
Laulagnet, Fabien
Lawrence, Brian L.

[TD05-120] TuP19[TD05-109] TuP8
[TD05-148] TuP47[TD05-6] MB3[TD05-75] MP16
[TD05-119] TuP18[TD05-92] MP33
[TD05-100] MP41
[TD05-92] MP33
[TD05-95] MP36
[TD05-101] MP42
[TD05-118] TuP17[TD05-132] TuP31[TD05-16] TuA2
[TD05-129] TuP28[TD05-44] ThA4
[TD05-45] ThA5
[TD05-134] TuP33[TD05-66] MP7[TD05-107] TuP6
[TD05-108] TuP7
[TD05-13] MC4[TD05-148] TuP47[TD05-142] TuP41[TD05-30] WA1[TD05-61] MP2[TD05-65] MP6[TD05-77] MP18
[TD05-138] TuP37[TD05-109] TuP8
[TD05-61] MP2[TD05-65] MP6[TD05-137] TuP36[TD05-140] TuP39[TD05-132] TuP31[TD05-60] MP1

Lee, Bongil
Lee, Irene
Lee, Jaejin

Lee, Jae-Sung
Lee, Jun-Seok
Lee, Kyunggeun

Lee, Sung Hoon
Lee, Xuan-Hao
Lee, Yong Hee
Leen, J. B.
Lemonnier, Olivier
Li, Jianming
Li, Minghua
Li, Y.
Li, Zuoyi
Liang, Chin-Tsia
Liang, Xinan
Lim, Dong-Soo
Lim, JungshikLim, Pang-Boey-39-

Lin, Gengqi
Liu, Pengfei
Liu, Qian
Liu, Tzong-Shi
Loncar, MarkoLongley, Kathryn L.
Lopez, James
Luk'yanchuk, Boris S.

[TD05-138] TuP37[TD05-63] MP4[TD05-123] TuP22[TD05-78] MP19
[TD05-11] MC2[TD05-6] MB3[TD05-119] TuP18[TD05-30] WA1

M
Ma, Bin
Ma, Jianshe
Ma, Qiang
Ma, Shih-Hsin
MacDonald, Kevin F.
Malki, Oliver

Miyamoto, Hirotaka
Mizukuki, Takeshi
Moloney, Jerome V.
Moritomo, Yutaka
Moser, Christophe
Mueller, Christian
Mukasa, Tomoharu
Murata, Shozou
Murayama, Haruno
Muroi, TetsuhikoMuto, Shinzo[TD05-136] TuP35[TD05-84] MP25
[TD05-67] MP8[TD05-66] MP7[TD05-32] WA3[TD05-110] TuP9
[TD05-50] ThB4
[TD05-52] ThB6
[TD05-2] MA2[TD05-31] WA2[TD05-12] MC3[TD05-60] MP1[TD05-35] WB1[TD05-38] WB4[TD05-39] WB5[TD05-55] ThC3
[TD05-123] TuP22[TD05-138] TuP37[TD05-15] TuA1
[TD05-41] ThA1
[TD05-77] MP18
[TD05-79] MP20
[TD05-128] TuP27[TD05-40] WB6[TD05-130] TuP29[TD05-118] TuP17[TD05-134] TuP33[TD05-135] TuP34[TD05-129] TuP28[TD05-46] ThA6
[TD05-4] MB2[TD05-15] TuA1
[TD05-41] ThA1
[TD05-7] MB4[TD05-18] TuA4
[TD05-31] WA2[TD05-35] WB1[TD05-21] TuB3
[TD05-76] MP17
[TD05-17] TuA3
[TD05-149] TuP48[TD05-35] WB1[TD05-111] TuP10[TD05-68] MP9N
Nagy, Peter
Nakamura, Toshihiro
Nakaoki, Ariyoshi
Naruse, Makoto
Ng, Lung Tat
Ni, KaiNoda, Susumu[TD05-81] MP22
[TD05-62] MP3[TD05-18] TuA4
[TD05-33] WA4[TD05-142] TuP41[TD05-67] MP8[TD05-10] MC1

Mansuripur, Masud
Mariscal-Lopez, Carlos
Matsuda, Nami
Matsunaga, Toshiyuki
McLeod, Robert R.

Miao, Junjie
Miao, X. S.
Mikami, Hideharu
Milster, Thomas D.

Min, Byeong-Hoon
Min, Byung-Hoon

Min, Cheol-Ki
Minemura, Hiroyuki
Mitsumori, Ayumi
Miyamoto, Harukazu-40-Nomura, Wataru[TD05-33] WA4

O
O'Brien, Nada A.
Ogasawara, Masakazu
Oh, Hyun-Suk
Ohkubo, Shuichi[TD05-86] MP27
[TD05-4] MB2[TD05-137] TuP36[TD05-37] WB3[TD05-59] ThC7
[TD05-62] MP3[TD05-62] MP3[TD05-1] MA1[TD05-33] WA4[TD05-69] MP10
[TD05-70] MP11
[TD05-72] MP13
[TD05-73] MP14
[TD05-87] MP28
[TD05-149] TuP48[TD05-8] MB5[TD05-76] MP17
[TD05-115] TuP14[TD05-6] MB3[TD05-75] MP16
[TD05-119] TuP18[TD05-103] TuP2
[TD05-24] TuB6

Ohmori, Kentaro
Ohmura, Kohji
Ohtsu, Motoichi
Okamoto, Atsushi

Okino, Yoshihiro
Onagi, Nobuaki
Orlic, Susanna

Ostroverkhov, Victor P.

Oto, Hiroshi
Oumi, Manabu
P
Pacearescu, Larisa
Pan, Longfa[TD05-58] ThC6
[TD05-83] MP24
[TD05-84] MP25
[TD05-89] MP30
[TD05-150] TuP49[TD05-95] MP36
[TD05-102] TuP1
[TD05-106] TuP5
[TD05-127] TuP26[TD05-16] TuA2
[TD05-44] ThA4
[TD05-45] ThA5
[TD05-16] TuA2
[TD05-44] ThA4
[TD05-45] ThA5
[TD05-93] MP34
[TD05-134] TuP33[TD05-102] TuP1
[TD05-106] TuP5
[TD05-107] TuP6
[TD05-108] TuP7
[TD05-24] TuB6
[TD05-129] TuP28[TD05-130] TuP29[TD05-131] TuP30[TD05-133] TuP32[TD05-141] TuP40[TD05-93] MP34
[TD05-107] TuP6
[TD05-108] TuP7
[TD05-129] TuP28[TD05-130] TuP29[TD05-131] TuP30[TD05-133] TuP32[TD05-141] TuP40

Park, Donghyuk
Park, Gwitae
Park, Hyeong-Ryeol
Park, Hyun-Soo

Park, Insik

Park, Jin-Bae
Park, Jinmoo
Park, Joo Youn

Park, Majung
Park, No-Cheol

Park, Young-Pil-41-

Pei, Jing

[TD05-83] MP24
[TD05-150] TuP49[TD05-34] WA5[TD05-148] TuP47[TD05-42] ThA2
[TD05-58] ThC6
[TD05-110] TuP9
[TD05-50] ThB4
[TD05-52] ThB6

Penmetcha, Kumar K.
Pichon, Joseph
Pilard, Gael
Przygodda, FrankQ
Qin, Zhiliang[TD05-91] MP32
[TD05-97] MP38
[TD05-98] MP39
[TD05-124] TuP23

Qu, Qingling
R
Ramamoorthy, Lakshmi D.
Rass, Jens

[TD05-56] ThC4
[TD05-8] MB5[TD05-76] MP17
[TD05-115] TuP14[TD05-26] TuC2
[TD05-119] TuP18[TD05-3] MB1[TD05-110] TuP9
[TD05-50] ThB4
[TD05-52] ThB6
[TD05-26] TuC2
[TD05-75] MP16

Rausch, Tim
Ren, Zhiyuan
Rentzepis, Peter M.
Richter, Hartmut

Riedel, Ernest P.
Ross, Fergus J.
S
Saito, Kimihiro[TD05-7] MB4[TD05-18] TuA4
[TD05-18] TuA4
[TD05-69] MP10
[TD05-73] MP14
[TD05-117] TuP16[TD05-103] TuP2
[TD05-69] MP10
[TD05-60] MP1[TD05-29] TuC5
[TD05-78] MP19
[TD05-27] TuC3
[TD05-51] ThB5
[TD05-38] WB4[TD05-26] TuC2
[TD05-68] MP9[TD05-118] TuP17[TD05-127] TuP26[TD05-130] TuP29[TD05-135] TuP34[TD05-132] TuP31[TD05-134] TuP33[TD05-101] MP42
[TD05-100] MP41
[TD05-142] TuP41[TD05-30] WA1[TD05-6] MB3[TD05-75] MP16
[TD05-119] TuP18[TD05-36] WB2[TD05-15] TuA1
[TD05-111] TuP10

Saito, Norihiko
Sano, Takayuki
Sano, Takumi
Sasa, YuichiroSato, Kunihiro
Satoh, Kazuyuki
Schechtman, Barry H.
Schlesinger, Tuviah E.
Schlottau, Friso
Scott, Timothy F.
Seekins, D.
Sekiguchi, Tohru
Seo, Jeong-Kyo

Seo, Jung-Kyo
Seo, ManjungShi, L. P.
Shi, Luping
Shi, Xiaolei

Shima, Takayuki
Shimano, Takeshi
Shimidzu, Naoki-42-

Shimura, Tsutomu
Shin, Won-Ho
Shinkai, Masaru
Shinohara, Noriyasu
Shiraishi, Junya
Simpson, Robert E.
Sissom, Bradley J.
Smith, Paul C.
Sofian, M. D.
Soh, Kwang-Sup
Sohn, Jin-Seung
Solanki, Sanjeev
Son, Do-Hyeon
Song, Ki-Chang
Su, Ya-Ni
Subash Chandra Bose, Gopinath
Sugimoto, YasunoriSuh, Sung-Dong
Sumi, Yojiro
Sun, Ching-Cherng
Sutanto, Diana N.
Suzuki, Ryu
Sze, Jia Y.

T
Takabayashi, Masanori
Takano, Yoshimichi
Takasawa, Takeharu
Takashima, Yuzuru
Takata, Masaki
Takats, Viktor
Tan, Kim L.
Tanabe, Norihiro
Tanabe, Takaya
Tanaka, Hitoshi
Tanaka, Junya
Tanaka, Kenji
Tanaka, Kunimaro[TD05-105] TuP4
[TD05-131] TuP30[TD05-149] TuP48[TD05-18] TuA4
[TD05-43] ThA3
[TD05-147] TuP46[TD05-36] WB2[TD05-113] TuP12[TD05-51] ThB5
[TD05-53] ThC1
[TD05-125] TuP24[TD05-139] TuP38[TD05-127] TuP26[TD05-141] TuP40[TD05-61] MP2[TD05-65] MP6[TD05-135] TuP34[TD05-132] TuP31[TD05-85] MP26
[TD05-34] WA5[TD05-149] TuP48[TD05-141] TuP40[TD05-105] TuP4
[TD05-66] MP7[TD05-112] TuP11[TD05-142] TuP41[TD05-104] TuP3
[TD05-142] TuP41[TD05-30] WA1[TD05-70] MP11
[TD05-149] TuP48[TD05-17] TuA3
[TD05-22] TuB4
[TD05-35] WB1[TD05-81] MP22
[TD05-86] MP27
[TD05-7] MB4[TD05-104] TuP3
[TD05-35] WB1[TD05-72] MP13
[TD05-47] ThB1
[TD05-143] TuP42[TD05-25] TuC1
[TD05-4] MB2[TD05-35] WB1[TD05-12] MC3[TD05-83] MP24
[TD05-84] MP25
[TD05-89] MP30
[TD05-150] TuP49[TD05-28] TuC4
[TD05-63] MP4[TD05-33] WA4[TD05-66] MP7[TD05-112] TuP11[TD05-105] TuP4
[TD05-88] MP29
[TD05-42] ThA2
[TD05-120] TuP19[TD05-100] MP41

Tanaka, Satoru
Tanaka, Yoshito
Tang, Jianyong
Tang, Yi

Taniguchi, Shoji
Tao, ShiquanTate, Naoya
Teng, Tun-Chien
Terada, Masaru
Theis, Oliver
Tien, Chung-Hao
Ting, L. H.

-43-

Tokumaru, Haruki
Tokuyama, Kazutatsu
Tominaga, Junji

Trunov, Mihail
Tsai, Meng-Yen
Tsujioka, Tsuyoshi
Tsukahara, Nobuhiko[TD05-149] TuP48[TD05-47] ThB1
[TD05-147] TuP46[TD05-34] WA5[TD05-36] WB2[TD05-9] MB6[TD05-62] MP3[TD05-9] MB6[TD05-110] TuP9
[TD05-50] ThB4
[TD05-52] ThB6
[TD05-81] MP22
[TD05-78] MP19
[TD05-80] MP21
[TD05-17] TuA3UUchiyama, Hiroshi
Urakawa, Yoshiyuki[TD05-7] MB4[TD05-17] TuA3V
Vieth, Udo[TD05-71] MP12Tominaga, Shin
Tomita, Yasuo
Tomiyama, Mizuho
Trautner, HeikoW
Waldman, David A.
Walker, Edwin P.
Wan, Xiaojun
Wang, Haifeng[TD05-116] TuP15[TD05-3] MB1[TD05-63] MP4[TD05-121] TuP20[TD05-30] WA1[TD05-63] MP4[TD05-124] TuP23[TD05-145] TuP44[TD05-123] TuP22[TD05-64] MP5[TD05-82] MP23
[TD05-15] TuA1
[TD05-41] ThA1
[TD05-75] MP16
[TD05-127] TuP26[TD05-63] MP4[TD05-109] TuP8
[TD05-99] MP40
[TD05-124] TuP23[TD05-145] TuP44

Wang, Huanyong
Wang, Yang
Wang, Yongsheng
Watanabe, Eriko
Watanabe, Koichi
Welles, Kenods
Won, Kitak
Wu, Feipeng
Wu, Ping-Jung
Wu, Qingyang
Wu, Yiqun

X
Xu, Baoxi[TD05-121] TuP20[TD05-125] TuP24[TD05-139] TuP38[TD05-61] MP2[TD05-65] MP6

Xu, Xuewu

Y
Yamada, Masahiro
Yamada, Noboru
Yamagami, Tamotsu[TD05-20] TuB2
[TD05-35] WB1[TD05-20] TuB2
[TD05-43] ThA3
[TD05-74] MP15
[TD05-103] TuP2
[TD05-117] TuP16[TD05-18] TuA4
[TD05-7] MB4[TD05-138] TuP37

Yamamoto, Manabu

Yamasaki, Takeshi
Yamatsu, Hisayuki
Yan, Junbing-44-

Yan, Mingming[TD05-83] MP24
[TD05-150] TuP49[TD05-4] MB2[TD05-93] MP34
[TD05-107] TuP6
[TD05-108] TuP7
[TD05-130] TuP29[TD05-131] TuP30[TD05-99] MP40
[TD05-99] MP40
[TD05-35] WB1[TD05-33] WA4[TD05-126] TuP25[TD05-13] MC4[TD05-134] TuP33[TD05-100] MP41
[TD05-102] TuP1
[TD05-106] TuP5
[TD05-129] TuP28[TD05-133] TuP32[TD05-74] MP15
[TD05-66] MP7[TD05-112] TuP11[TD05-142] TuP41[TD05-30] WA1[TD05-89] MP30
[TD05-150] TuP49[TD05-125] TuP24[TD05-139] TuP38[TD05-13] MC4[TD05-18] TuA4

Yanagisawa, Takuma
Yang, Hyun-Seok

Yang, Lee
Yao, Timothy S.
Yasuda, Nobuhiro
Yatsui, Takashi
Yeo, Junyeob
Yin, Xiaobo
Yoo, Seung Hun
Yong, K. T.
Yoon, Pilsang
Yoon, Yong-Joong
Yoshida, Shuhei
Yu, Ye-Wei
Yuan, Gaoqiang
Yuan, Haibo
Yuan, HongXing
Yuen, Yin
Yukumoto, Tomomi
Z
Zakharian, Aramais R.
Zha, Chaolin
Zhang, Buqing[TD05-31] WA2[TD05-136] TuP35[TD05-84] MP25
[TD05-150] TuP49[TD05-139] TuP38[TD05-79] MP20
[TD05-128] TuP27[TD05-139] TuP38[TD05-91] MP32
[TD05-97] MP38
[TD05-98] MP39
[TD05-123] TuP22[TD05-136] TuP35[TD05-16] TuA2
[TD05-44] ThA4
[TD05-45] ThA5
[TD05-63] MP4[TD05-32] WA3[TD05-57] ThC5
[TD05-90] MP31
[TD05-91] MP32
[TD05-97] MP38
[TD05-98] MP39

Zhang, Jun
Zhang, Jun
Zhang, Qide
Zhang, Songhua

Zhang, Zhuwei
Zhang, Zongzhi
Zhao, HuiZhao, Yuxia
Zheludev, Nikolay I.
Zhu, YongguangZou, Xiaoxin-45-

Postdeadline Submissions
The purpose of post deadline papers is to give
participants the opportunity to hear new andsignificant material in rapidly advancing areas. Only
those papers judged to be truly excellent andcompelling in their timeliness will be accepted. The
ISOM/ODS Technical Program Committee will accept
a limited number of post deadline papers for oralpresentation.
We will accept online submissions of papers reporting
extraordinary results at http://spie.org/events/ods
until 16 June 2008. Papers will be reviewed by the
Program Committee and notification of acceptance will
be sent electronically by 30 June 2008.

Prepare to Submit
Author Contact Information
Have all contact information (full names, affiliations,addresses, phone numbers, and emails) for yourcoauthors ready25-word Abstract
 Text-only abstract will be entered into a separate
field.
 No equations or symbols will be accepted.
 If accepted, the abstract will appear in theTechnical Program.
 Abstracts, longer than 25 words, will be arbitrarily
shortened by the committee.
Three-page Summary Format for 8.5 x 11 inch paper with one inch
margins on all sides.
 Include within file author(s), text, equations,drawings, figures and references.
 First page should include the title of the talk,author's name(s), affiliation(s), complete return
address, telephone and fax numbers.
 The text must be typed single-spaced.
 Tables, photographs, and drawings must appear
exactly as they are to be reproduced.
 The abstract should not be repeated in thesummary.

-46-

 Do not use asterisks, acknowledgements, job
descriptions, or footnotes.

 Cite references at the end of the summary.
 If the paper is accepted, the summary will be
published in the Technical Digest.
Important Contributed Paper Information
Fill out the web submission information completely,
including these two fields:
 Key Words: In the key words field, type in
topic from the list provided.
 Mode of Presentation: Choose one only fromthe drop down list on submission page:o Poster only (oral presentation unacceptable)o Oral only (poster presentation unacceptable)o Oral presentation preferred, but poster presentationis acceptableo Poster presentation preferred, but oral presentationis acceptable
Conditions of Acceptance
Adherence to the instructions is imperative. Any of
the following conditions may result in rejection of apaper:
 Failure to submit the paper by the 16 June 2008
post deadline due date.
 Faxed or mailed submissions will NOT be accepted.

Modes of Presentation
Oral Presentation
The presentation times for oral sessions are as follows:
invited papers are 30 minutes each including 5
minutes for questions, contributed papers are 15
minutes each including 3 minutes for questions.
Audiovisual Equipment
The conference room will contain the following: Microsoft Windows workstation
 LCD projector
 Screen Lapel microphone Laser pointer-47-

The workstation in the conference room will be a
Windows Based Pentium PC and will be configured
as follows: Microsoft Windows XP operating system
 PowerPoint 2003, with Microsoft Office 2003
 Windows Media Player 9
 QuickTime Player 7
 Adobe Flash Player 8
 Adobe Acrobat Reader
 Note: Internet Access is NOT provided in thesession rooms
Guidelines for presenting using workstation in
conference room
Acceptable Presentation File Formats on the workstationin conference rooms are:
 PowerPoint™
 Adobe Flash (formerly Macromedia)
 PDF (Adobe Acrobat)
To use the workstation, please bring your presentationon: USB Mass Storage ( i.e. Pen Drive, USB Thumb
Drive, Flash Drives) CD-ROM only CD-R, (No CD-RW, CD-ReWritabledisks)
Please arrive before the conference begins in themorning, at a coffee break, or at lunch break prior toyour scheduled presentation to upload your presentation
to the workstation in your conference room.
Presentations will be deleted from the conference room
workstations at the end of each day as a security
measure.
Guidelines for presenting using your Laptop
If you plan to use your personal laptop, please bringit to the conference room to confirm display compatibility
with the supplied LCD projector. The LCD projectors
have a native SXGA+ resolution 1400x1050 andaccept standard VGA 15pin input.
Optional Audiovisual Equipment
Three weeks prior to the meeting SPIE will send an
email or fax to all oral presenters giving information,
and an optional audiovisual request form.
To assist you with your oral presentation requirements,
SPIE needs to be notified of your optional audiovisualneeds. Please send your optional audiovisual requests-48-

prior to the deadline to assess availability of requested
equipment and receive approval. Requests can be sent
to AVStaff@SPIE.org
Audio - Video - Recording
Due to copyright restrictions, strictly no recordingsof any kind are permitted without prior writtenconsent of the presenter in any conference session,short course or posters session. Consent forms areavailable at the SPIE Registration Desk and anyone
wishing to record must have a written consent form
signed and filed for each presenter being recorded.
Individuals not complying with this policy will be
asked to leave a given session and asked tosurrender their film or recording media.

Poster Presentation
Poster presentations provide an opportunity forpapers to be presented in greater visual detail andshould facilitate vivid discussions with interested
attendees.
There will be two separate poster sessions from2:00 to 3:30 pm on Monday and Tuesday. Pleasecheck the program for the exact date of specificpresentations. Authors must remain in the vicinity ofthe poster board for the duration of the session toanswer questions on their presentation day.
In order to ensure a high quality presentation, allposter materials must be in printed form (handwritten
text will not be accepted). Note that poster papers
are not supplied with any audiovisual equipment.
Poster Presentation Guidelines
Display Area
 45 inches x 45 inches (114cm x 114cm). Push
pins will be provided to hang your poster.
Your poster presentation should include: The paper title and all authors at the top of theposter.
 A brief introduction, goals, experimental detail,conclusions, and references (make sure thisinformation is presented in a logical and clear
sequence).
 Explanations for graphs, pictures, and tables.

-49-

Set Up
Poster authors may display their posters beginningat morning coffee break on the day of theirpresentation. Posters not displayed by the beginningof the poster session at 2:00 pm will be considered
a no-show.
RemovalPosters must be removed at the end of the day after
the oral sessions. Posters not removed by 7:00 pm
will be considered unwanted and will be discarded.

AwardsThe ISOM/ODS Awards will be presented to the best
paper, the best student paper, the best academic
paper and the best technical paper in the Award
Ceremony during the Closing Remarks. Each of thebest papers will receive a certificate and a prize.

Publication of Conference Papers
In addition to the Technical Digest available at theconference, conference papers will be published as a
special issue of the Japanese Journal of Applied Physics(JJAP) in March, 2009. The authors who will have, bythemselves, presented papers at ISOM/ODS’08 will beallowed and strongly encouraged to submit theirpapers for publication in this special issue.
Each author will be requested to download author’s
kits including an application form and a copyright form
for the paper at http://www.isom.jp after the
notification of acceptance. The deadline for submissionof manuscripts is August 31, 2008. Submitted papers
will be reviewed based on the JJAP standard.

Tabletop Exhibits
An informal exhibit of small tabletop displays featuringpertinent equipment, materials and literature will beheld in conjunction with the conference. Ample time
will be allowed for all attendees to visit the exhibits
and speak with representatives from industry.

-50-

Exhibition Hours
Monday 14 July | 10 am to 12 pm; 1:30 to 5 pm
Tuesday 15 July | 10 am to 12 pm; 1:30 to 5 pm
Wednesday 16 July | 10 am to 12 pm
Exhibition Place
Queen’s Ballroom
Become an Exhibitor
To become an Exhibitor, please access the ISOM/ODS’08
Exhibition Contract at http://spie.org/events/ods orcontact:
Diane ClineSPIEPO Box 10, Bellingham, WA 98227-0010
Tel: +1-360-685-5462
Email: diane@spie.org

Welcome Reception
Join your colleagues at the welcome reception forrefreshments and networking.
Date: Tuesday 15 July
Time: 7:00 PM - 8:30 PM-51-

Registration
Conference Registration Fees
The registration fee includes admission to all technicalsessions, the tabletop exhibit, one ticket to the
Welcome Reception, refreshment breaks, and print andCD versions of the Technical Digest.

Member Type

Before/On
23 June2008

After
23 June
2008

$580

$680

$680

$780

$220

$270

$270

$320

Regular Member(SPIE/IEEE/OSA/JSAP/
MSJ)
Regular Nonmember
Student Member(SPIE/IEEE/OSA/JSAP/
MSJ)
Student Nonmember

Short Course Registration Fees
Conference
separately.

attendees

Member Type
MemberNonmember

can

add

courses,

Before/On
23 June
2008
$225
$300

pricedAfter
23 June
2008
$275
$350

How to Register
OnlineComplete the online registration process at
http://spie.org/events/ods and pay online by credit
card.
Mail or Fax
Send your PDF registration form with check or credit
card payment to:
SPIE
PO Box 10, Bellingham, WA 98227-0010
Tel: +1-360-676-3290-52-

Fax: +1-360-647-1445
Email: customerservice@spie.org

Refund Policy for Registration
There is a $35 service charge for processing refunds.
A letter requesting the refund should state thepreregistrant's name and to whom the check should
be made payable. Requests for preregistration must
be received no later than 4pm PST, 3 July 2008. Allregistration fees will be forfeited after this date.

Hotel Reservation
A block of rooms at special conference rates has
been reserved at the Hilton Waikoloa Village Hotelfor conference attendees. The conference rates cannot
be guaranteed after the room block has been filled
and will not be honored after the cut-off date ofJune 12, 2008.

Hotel
Hilton Waikoloa Village Hotel
69-425 Waikoloa Beach Drive
Waikoloa, Hawaii 96738
Tel: +1-808-886-1234
Fax: +1-808-886-2900

Rates
Room Type
Golf Garden Mountain
Partial Ocean
Deluxe Ocean
1-Bedrm Bay Suite

Rate
$205
$255
$275
$295

* Single/Double + tax 11.41%* STUDENT Rate: See below.

Important Considerations
 Highspeed Internet in guest rooms: $14.95 one
day plan Cancellation Policy: Notify hotel at least 72
hours prior to arrival date to avoid a penalty fee.

-53- Early departure fee of $50 applies unless hotel isnotified before or at check-in.

Make a Reservation
To secure a room reservation, requests must be
received with a credit card guarantee or a check in
the amount of the first night's room plus tax(11.41% tax is subject to change). Problems ordelays with your payment may affect your hotel
request.
Reservations can be made directly with the hotel. To
makea Reservation online,
pleaseaccesshttp://spie.org/events/ods. To make a Reservation
via Telephone, Fax or Mail, please use the PDF Hotel
Reservation Form.

Student Reservations
A LIMITED block of rooms has been set aside for
STUDENTS ONLY @$135 per night + tax per room,
up to 4 persons per room. All student reservations
must be made directly with SPIE - please email
marilynT@spie.org
orcall+1-360-685-5461.
Students CANNOT book via the web or with the
hotel directly and obtain this rate. In order to book,
students must provide a letter from their adviser as
proof they are registered as full time students. Thisletter can be emailed to marilynT@spie.org or faxed
Attention MarilynT to +1-360-647-1445. As well,students must show official Student Identification at
check-in. All reservations must be guaranteed with acredit card at the time of booking. Although the
cut-off date is June 12, 2008, you are advised to
BOOK EARLY.
These rooms will be filled very
quickly.

Transportation
About Waikoloa
The Hilton Waikoloa Village presides majestically over
62 spectacular oceanfront acres along the sunny
Kohala Coast of Hawaii's Big Island. Gracing themagnificent black shoreline like a plantation, the Hilton
Waikoloa Village lets you experience breathtaking-54-

tropical gardens, abundant wildlife, award-winning
dining, world-class shopping, art and culture, and anarray of activities ranging from golf and tennis to aninteractive dolphin program and the Kohala Sports
Club & Spa.
For more information about Waikoloa, visit theirwebsite at http://www.waikoloahi.com

Flying to Waikoloa
Hawaii's Big Island is served with daily direct flights
into Kona International Airport. Major air carriers
from Canada, the U.S. and Japan fly directly into
Kona. All major carriers fly into Honolulu International
Airport which is a mere 35-minute hop via an interisland carriers to Kona.
Kona International Airport (KOA) is conveniently
located 17 miles of Waikoloa.

Car Rental
Hertz Car Rental has been selected as the official car
rental agency for this conference. To reserve a car,identify yourself as a conference attendee using the
Hertz Meeting Code CV# 029B0011. Note: Whenbooking from International Hertz locations, the CV #must be entered with the letters CV before thenumber, i.e. CV029B0011.
Hertz
 In the United States call 1-800-654-2240.
 In Canada call 1-800-263-0600, or 1-416-6209620 in Toronto.
 In Europe and Asia call the nearest Hertz
Reservation Center or travel agent.
 Outside of these areas call 1-405-749-4434.
Driving Directions to Hilton Waikoloa
When departing the Kona International Airport, turnleft (north) onto the highway for approximately 20
minutes. At the first traffic light, turn left (Waikoloa
Beach Drive). Follow drive approximately 2 miles,
hotel entrance will be on the left.
Hilton Waikoloa Parking Information
 Self parking: $12 per day Valet parking: $19 per day-55-

Shuttle and Taxi Service from the Airport
Please visit http://www.hiltonwaikoloavillage.com/services/transportation.asp.

Contact Us
For questions
contact:

concerning

ISOM/ODS’08,

Sandy Hoelterhoff
Conference Programs Coordinator
SPIE
PO Box 10, Bellingham, WA 98227-0010
Tel: +1-360-685-5517
Fax: +1-360-647-1445
Email: SandyH@spie.org-56-

pleaseCommittees
ISOM Steering Committee
I. Fujimura, Ricoh, Chair
T. Maeda, JST, Vice Co-Chair
S. Sugiura, Pioneer, Vice Co-Chair
H. Kanbara, NTT
R. Katayama, NEC
H. Kobori, Toshiba
H. Miyamoto, Hitachi
Y. Murakami, Sharp
K. Sano, Matsushita
M. Shinoda, Mitsubishi
T. Tanabe, Ibaraki Nat. College of Tech.
K. Tezuka, Fujitsu Ten
M. Toishi, Sony
H. Tokumaru, NHK
Y. Tsuchiya, Sanyo
E. Watanabe, Japan Women’s Univ.

ODS General Chairs
Tim Rausch, Seagate Technology, Chair
Kimihiro Saito, Sony Corp., Chair

ISOM Technical Program Committee
H. Tokumaru, NHK, Chair
S. Higashino, Sony, Vice Co-Chair
T. Iida, Pioneer, Vice Co-Chair
Y. Kawata, Shizuoka Univ., Vice Co-Chair
I.-H. Choi, LG
T. C. Chong, DSI
C. Davies, Plasmon Data Systems
S. Hasegawa, Fujitsu Labs.
A. Hirao, Toshiba
D.-R. Huang, ITRI
S. Ichiura, Sanyo
M. Irie, Osaka Sangyo Univ.
K. Itoh, Ricoh
M. Itonaga, JVC
T. Kikukawa, TDK
J.-H. Kim, Samsung
Y.-J. Kim, Yonsei Univ.
T. Milster, Univ. of Arizona-57-

K. Nishikawa, CanonT. Okumura, Sharp
I.-S. Park, Samsung
N.-C. Park, Yonsei Univ.
T. E. Schlesinger, Carnegie Mellon Univ.
T. Shimura, Univ. of Tokyo
T. Shintani, Hitachi
D.-H. Shin, Samsung
M. Takeda, Sony
R. Tamura, Hitachi Maxell
K. Tanaka, Teikyo-Heisei Univ.
S. Tanaka, Pioneer
C.-H. Tien, Nat’l Chiao Tung Univ.
J. Tominaga, AIST
Y. Tomita, Pioneer
D. P. Tsai, Nat’l Taiwan Univ.
T. Tsujioka, Osaka Kyoiku Univ.
K. Ueyanagi, JST
S. Wang, Ritek
P. Wehrenberg, AppleD. C. Wright, Univ. of Exeter
S. Yagi, NTT
N. Yamada, Matsushita
Y. Yamanaka, NEC
K. Yokoi, Ricoh

ODS Technical Program Committee
Kevin R. Curtis, InPhase Technologies, Chair
Luping Shi, Data Storage Institute, Chair
Sumio Ashida, Toshiba Corp.
Vijayakumar Bhagavatula, Carnegie Mellon Univ.
In-Ho Choi, LG Electronics Inc.
Atsushi Fukumoto, Sony Corp.
Lambertus Hesselink, Stanford Univ.
Tzuan-Ren Jeng, Industrial Technology Research InstituteTakashi Kikukawa, TDK Corp.
Rie Kojima, Matsushita Electric Industrial Co., Ltd.
Kyung-Guen Lee, Samsung Electronics Co., Ltd.
Masud Mansuripur, Univ. of Arizona
Robert R. McLeod, Univ. of Colorado
Hiroyuki Minemura, Hitachi Ltd.
Susanna Orlic, Technical Univ. Berlin
Longfa Pan, Tsinghua Univ.
Masataka Shinoda, Sony Corp.
Paul J. Wehrenberg, Apple Computer, Inc.

-58-

ISOM Organizing Committee
K. Ogawa, Univ. of Tokyo, Chair
R. Ito, Meiji Univ., Exofficio
Y. Mitsuhashi, JST, Exofficio
M. Onoe, Prof. Emeritus, Univ. of Tokyo, Exofficio
Y. Sakurai, Prof. Emeritus, Osaka Univ., Exofficio
T. Toshima, NTT Elec., Exofficio
Y. Tsunoda, Hitachi Maxell, Exofficio
I. Fujimura, Ricoh
K. Itoh, Osaka Univ.
T. Iwanaga, NEC
K. Kime, Mitsubishi
M. Kume, Sanyo
S. Matsumura, Pioneer
H. Miyajima, MSJ
M. Nakamura, Hitachi
K. Nishitani, SonyY. Odani, OITDA
K. Ohta, Sharp
H. Sakaki, JSAP
S. Tanaka, Matsushita
H. Tokumaru, NHK
T. Uchiyama, Fujitsu Labs.
H. Yamada, Toshiba
H. Yoshida, Mitsubishi Chem.

ISOM Advisory Committee
D. Chen, Chen & Associates Consulting
K. Fushiki, Nikkei BP
K. Goto, Tokai Univ.
Y. Ichioka, Nara Nat. College of Tech.
N. Imamura, TeraHouse
A. Itoh, Nihon Univ.
K. Itoh, Fujitsu Labs.
U. Itoh, AIST
T. Kondo, JVC
T. Kubo, T. Kubo Engineering Science Office
S. Kubota, Univ. of Tokyo
M. Mansuripur, Univ. of Arizona
M. Mori, NatureInterface
T. Murakami, OITDA
T. Ohta, Ovonic Phase-change Lab.
M. Ojima, Hitachi
Y. Okino, Kansai Univ.
Y.-P. Park, Yonsei Univ.

-59-

J. Saito, Nikon
H.-P. Shieh, Nat’l Chiao Tung Univ.
H. Ukita, Ritsumeikan Univ.
F. Yokogawa, Pioneer

ODS Advisory Committee
Bernard W. Bell, Optical Wizards LLC, Chair
Takeshi Shimano, Hitachi Maxell, Ltd., Chair
Chong Tow Chong, Data Storage InstituteDavid H. Davies, DataPlay, Inc.
Der-Ray Huang, Industrial Technology Research Institute
Isao Ichimura, Sony Corp.
Ryuichi Katayama, NEC Corp.
Jooho Kim, Samsung Electronics Co., Ltd.
Takeshi Maeda, Japan Science and Technology Agency
Thomas D. Milster, Univ. of Arizona
Naoyasu Miyagawa, Matsushita Electric Industrial Co., Ltd.
Michael P. O'Neill, Consulting
Young-Pil Park, Yonsei Univ.
Isao Satoh, Unaxis Balzers AG
Barry H. Schechtman, Information Storage Industry Consortium
Tuviah E. Schlesinger, Carnegie Mellon Univ.
Yun-Sup Shin, LG Electronics Inc.
Din-Ping Tsai, National Taiwan Univ.

-60-

Memo

-61-

Memo

-62-

Memo

-63-

-64-