Kauai Ballroom, Kona (NLO)

Kauai Ballroom, Halele’a (NLO)

Kauai Ballroom, Ko’olau (ISOM/ODS)

Sunday, 17 July
14:00–18:00

Registration Open, Kauai Court

Monday, 18 July
7:00–18:30

Registration Open, Kauai Court

8:00–8:15
8:15–10:00

Opening Remarks, Kauai Ballroom, Kona

Opening Remarks, Kauai Ballroom, Koʹolau

NMA ● Materials I, Kauai Ballroom, Kona

OMA • Keynote/Nano‐photonics (ends at 10:15)

10:00–10:30

Coffee Break & Exhibit Time, Kauai Court

10:30–12:30

NMB ● Quantum Optics I

NMC ● Terahertz(starts at 10:45) OMB • Holographic Memory

Free Afternoon for NLO Sessions ( on your own)

12:30–19:30
14:00 ‐‐ 15:45

OMC • Components

15:45 ‐‐ 17:15

OMD • ISOM/ODS Poster Session I, Puna
Ballroom

17:15‐‐18:45

OME • Media/Fabrication

19:30–21:30

NMD ● Nonlinear Absorption andMagnetization

NME ● Lasers and OPOs

NTuA ● Plasmons and Solitons

NTuB ● Nonlinear Spectroscopy I

Tuesday, 19 July
7:30–18:00

Registration Open, Kauai Court

8:00–10:00
10:00–10:30

OTuA • Near‐field/Plasmonics

Coffee Break & Exhibit Time, Kauai Court

10:30–12:30

NTuC ● Solitons

NTuD ● Materials II

OTuB • Femtosecond Applications/Phase‐changeFree Afternoon for NLO Sessions (on your own )12:30–19:30
14:00‐‐15:30

OTuC • Drive Technologies/Signal Processing

15:30‐‐17:00

OTuD • ISOM/ODS Poster Session II, Puna
Ballroom

19:00–21:00

Evening Registration Open, Kauai Court
NTuE ● Waveguides

19:30–21:30

NTuF ● Biophotonics, Optomechanics andOptofluidics(starts at 19:00) OTuE • Special Session on
Hybrid Recording

Wednesday, 20 July
Registration Open, Kauai Court

7:30–17:30
8:00–10:00

NWA ● Symposium Celebrating the 50th Anniversary of Nonlinear Optics I,
Kauai Ballroom, Kona

10:00–10:30
10:30–12:30

Coffee Break & Exhibit Time, Kauai Court
NWB ● Symposium Celebrating the 50th Anniversary of Nonlinear Optics II,
Ballroom, Kona

12:30–14:00
14:00–15:30

Kauai

Lunch Break ( on your own)
NWC ● Quantum Optics II

NWD ● Frequency Comb Generation

16:00‐‐17:00

OWB • Volume Recording
OWC • ISOM/ODS Postdeadline Session

NWE ● NLO Poster Session, Puna Ballroom

15:30–17:30
18:00–21:00

Luau, Luau Gardens (Rain back‐up: Ka Mala)

Thursday, 21 July
7:30–12:30

Morning Registration Open, Kauai Court

8:00–10:00

NThA ● High Intensities, Kauai Ballroom, Kona
Coffee Break & Exhibit Time, Kauai Court

10:00–10:30
10:30–12:30

OWA • Micro‐hologram (ends at 12:00)

NThB ● Photonic Crystal andWaveguides Arrays

NThC ● Modelocked Lasers and Continuum
Generation

12:30–19:30

Free Afternoon (on your own )19:00–21:00

Evening Registration Open, Kauai Court

19:30–21:30

NThD ● Nanophotonics, Kauai Ballroom, Kona

Friday, 22 July
7:30–12:00

Morning Registration Open, Kauai Court

8:00–10:00

NFA ● Frequency Combs and Waveform Synthesis, Kauai Ballroom, Kona

10:00–10:30

Coffee Break & Exhibit Time, Kauai Court
NFB ● Nonlinear Spectroscopy II

10:30–12:30

NMA‐‐NFBNLO Sessions

OMA‐‐OWC

ISOM/ODS Sessions

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) Abstracts• Sunday, 17 July, 2011 •Kauai Court, Registration Open, 14:00 – 18:00• Monday, 18 July, 2011•

Kauai Ballroom, Ko’olau, Welcome Remarks, 08:00 – 08:15

OMA • Keynote/Nano‐photonics
Kauai Ballroom, Ko’olau
08:15‐‐10:15
Robert McLeod; Dept. of Electrical and Computer Eng, Univ. of Colorado at Boulder United States;
Yoshimasa Kawata; Shizuoka University Japan; Presiders

OMA1 • 08:15
InvitedFundamental Understanding of Near Field Transducers, Lambertus Hesselink1; 1Department of Electrical Engineering, Stanford
University, USA. In this keynote presentation I will address fundamental principles underlying the operation of near fieldtransducers. In particular emphasis will be placed on using vector field topology for improved understanding. Selected examples ofnear field transducers will be presented related to IT applications.
OMA2 • 08:45
Invited
The role of nanotechnology in data storage devices and systems, Masud Mansuripur1; 1College of Optical Sciences, The University of
Arizona, USA. As data storage technologies evolve, the balance among electronic, magnetic, and optical modes of storage shifts in
unpredictable ways. Commercial success is tied to the ability to continually shrink the individual bitʹs spatial dimensions.
OMA3 • 09:15
InvitedHigh‐speed Near Field Optical recording Using Plasmonic Flying Head, Liang Pan1,2, Insik Park1, Erick Ulin‐Avila1, Yi Xiong1, Li
Zeng1, Cheng Sun1,3, David Bogy1,2, Xiang Zhang1; 1NSF Nano‐scale Science and Engineering Center (NSEC), University of California
Berkeley, USA; 2Mechanical Engineering, Computer Mechanics Laboratory, Department of Mechanical Engineering, University of California,
USA; 3Mechanical Engineering, Northwestern University, USA. We demonstrated the parallel maskless plasmonic nanolithography at
10 meter/second. This is a low‐cost high‐throughput nano‐fabrication scheme which has the potential of a few orders of magnitude
higher throughput than current maskless techniques.
OMA4 • 09:45
InvitedPlasmonic coupling of near‐field optical disk, Din Ping Tsai1,2; 1Department of Physics, National Taiwan University, Taiwan; 2National
Instrument Technology Research Center, Taiwan. We investigate surface plasmon polariton coupling between two nano‐recording
marks. The different coupling characteristics and the read‐out reflection signal of disk‐ and ring‐shapes recording marks will be
discussed.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort
OMB • Holographic Memory
Kauai Ballroom, Ko’olau
10:45 ‐‐ 12:30
Yuzuru Takashima, Stanford Univ., USA;
Tsutomu Shimura; Univ. of Tokyo; Presiders

OMB1 • 10:45
InvitedWavefront compensation for holographic data storage, Norihiko Ishii1, Tetsuhiko Muroi1, Nobuhiro Kinoshita1, Koji Kamijo1,
Hiroshi Kikuchi1, Naoki Shimidzu1; 1Science & Technology Research Laboratories, NHK (Japan Broadcasting Corporation), Japan.
We have been studying adaptive optics to compensate for hologram distortion optically and improve bit‐error‐rate of the
reproduced data. This method is effective when photopolymer recording media, whose volume is changed byphotopolymerization, is used.

OMB2 • 11:15
Fabrication of PDLC Diffuser Using Applied Magnetic Field and Holographic Multiplexing Technique, Satoshi Honma1,
Tatsuya Hasegawa1, Yuta Ishihara1, Toru Sekiguchi1; 1. Yamanashi Univ. Japan. We propose a new fabrication method of PDLC
diffuser for speckle‐multiplexing holographic memories. Six random phase codes are generated by applying electric field to thefilter. It increases recording density of the holographic memories dramatically.
OMB3 • 11:30
Holographic Diversity Detection of Spatial Quadrature Amplitude Modulation Signal for Dual‐Stage Holographic Memory,
Keisuke Kunori1, Atsushi Okamoto1, Akihisa Tomita1, Masanori Takabayashi1; 1Hokkaido University, Japan. We propose a new
method to detect multi‐level phase signals by generating 4‐pieces of digital hologram by single shot hologram reading without
using the reference light of a resolution higher than the signal page data.

OMB4 • 11:45
Self‐Referential Holographic Data Storage by Phase‐Modulation Technique, Masanori Takabayashi1, Atsushi Okamoto1; 1.
Hokkaido University, Japan. A self‐referential holographic recording geometry, in which signal beam works as reference beam forrecording of itself, having many attractive advantages is newly proposed. The purely one‐beam holographic operation is performedby simulation and experiment.
OMB5 • 12:00
High‐Density Recording Method with RLL Coding for Holographic Memory System, Yusuke Nakamura1, Ken‐ichi Shimada1,
Toshiki Ishii1, Hajime Ishihara1, Makoto Hosaka1, Taku Hoshizawa1; 1Yokohama Research Laboratory, Hitachi, Ltd., Japan. A high‐density recoding method with RLL coding and smaller Fourier plane filter has been developed. With this method, we confirmed aholographic drive system with 667GB capacity feasible.
OMB6 • 12:15
Region‐Divided Adaptive Equalization for Holographic Memory, Makoto Hosaka1, Toshiki Ishii1, Taku Hoshizawa1; 1Yokohama
Research Laboratory, Hitachi, Ltd., Japan. Holographic memory channels suffer from disturbances. We revealed inter‐pixel
interferences vary even in the same page by the disturbances. Using the newly developed region divided adaptive equalization, we
can improve SNR by 3.5 dB.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort
OMC • Components
Kauai Ballroom, Ko’olau
14:00 ‐‐ 15:45
Koichi Watanabe; Japan;
Ryuichi Katayama; Fukuoka Institute of Technology Japan; Presiders

OMC1 • 14:00
InvitedAll‐Semiconductor‐Laser Light Sources Generating High‐Peak‐Power Picosecond Optical Pulses, Masaru Kuramoto1,2, Masao
Ikeda1,2, Hiroyuki Yokoyama2; 1Advanced materials laboratory, Sony corporation, Japan; 2New Industry Creation Hatchery Center, Tohoku
University, Japan. We have developed highly functional all‐semiconductor‐laser light sources at the wavelength of 400 and 800 nm.
These light sources have been successfully applied for three‐dimensional optical data storage as well as for two‐photon fluorescencebioimaging.
OMC2 • 14:30
InvitedDevelopment and Application of Highly Functional Ultrashort Pulse Fiber Lasers, Norihiko Nishizawa1; 1Electrical Engineeringand Computer Science, Nagoya University, Japan. We have demonstrated generation of wideband, ultrafast wavelength tunableultrashort pulses and high quality super continuum based on ultrashort pulse fiber lasers. Their applications for ultrahighresolution optical coherence tomography and NIR spectroscopy are described.
OMC3 • 15:00
Ultra‐Compact Optical Module of Homodyne Detection, Hideharu Mikami1, Takahiro Kurokawa1, Koichi Watanabe1; 1Hitachi,Ltd., Central Research Laboratory, Japan. We demonstrated ultra‐compact and low‐cost implementation of homodyne detection. The
assembled module size was 10 x 30 mm2. Jitter of the attenuated BD‐R readout signals was improved from 15% to 7.8% by applying
the module.
OMC4 • 15:15
Experimental Demonstration of Reducing Interlayer Crosstalk of Multilayer Disc in a Three Beam Optical Disc Tester Using
Polarizing Device, Eriko Tatsu1, Shigeharu Kimura1, Tatsuro Ide1, Takahiro Kurokawa1, Koichi Watanabe1; 1. Hitachi, Japan. We
demonstrated interlayer crosstalk reduction of multilayer disc by using a polarizing device in a three‐beam optical disc tester
experimentally. Application of the device to a dual‐layer BD with 5 μm layer spacing showed satisfactory effect, roughly halving
DPP signal fluctuation.
OMC5 • 15:30
Subwavelength Focusing Technique using a Plasmonic Lens, Minoru Takeda1, Suguru Nakatani1; 1Kyoto Institute of Technology,
Japan. We fabricated a plasmonic lens with only a several micron diameter ring slit and confirmed that it can produces a
subwavelength focusing spot not only in the near‐field, but also in the quasi far‐field region.

Kauai Court, Coffee Break, 15:45 – 16:15

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort
OMD • ISOM/ODS Poster Session I
Puna Ballroom
15:45 ‐‐17:15
OMD1
Müller Matrix Characterisation of μ‐SIL, Carlos Macias‐Romero1, Peter Török1, Matthew R. Foreman1; 1.We report on the responseof a micrometric solid immersion lens to different states of polarisation by means of confocal Müller matrix polarimetry.
OMD2
Why is My Grating Blue? Donald A. Chernoff1, David L. Burkhead1; 1. We describe practical manufacturing tolerances for opticaland magnetic data patterns and how to measure accurately. Designers of nanophotonic devices should consider whether real‐world
performance will be degraded by normal variations in feature position, size or shape.
OMD3Error Correcting Capable 2/4 Modulation Code Using the Trellis Coded Modulation in Holographic Data Storage, Yong‐ok
Kim1, Gyuyeol Kong1, Sooyong Choi1; 1.We propose error correcting capable 2/4 modulation code using the trellis coded
modulation without data rate loss. We make a new symbol set for 2/4 modulation code and define distances between symbols.
OMD4
Fuzzy based Intelligence Method for Image Processing System in Holographic Data Storage System, Jang Hyun Kim1; 1Yonsei
University, Republic of Korea. A holographic data storage system has the advantages of a high data rate, rapid access and amultiplexing method. In this paper, we propose image processing method by fuzzy system and wavelet transform algorithm. It is
intelligence algorithm in holographic data storage system.
OMD5
Estimating Facial Angle for Face Recognition System with Holographic Memory and Stereo‐Vision Technology, Satoshi
Honma1, Yasuaki Yagisawa1, Hidetomo Momose1, Toru Sekiguchi1; 1.We have proposed facial recognition system FARSAHS. Thissystem makes CG facial image reorientated to front of the virtual camera. This function maintain high recognition rate when the
facial direction to camera changes.
OMD6
Optical Data Storage Induced by a Radially Polarized Beam, Xiangping Li1, Min Gu1; 1. In this paper we report on the applicationof a radially polarized beam in three‐dimensional optical data storage. Super‐resolution recording by employing an annual
objective has been demonstrated.
OMD7
Shock Isolation of Optical Pickup in Optical Disk Drive, Wonseok Oh1, Seungho Lim1, Kyoung‐Su Park1, No‐Cheol Park1, Young‐
Pil Park1, Jae‐Sung Lee2, Han‐Baek Lee2; 1Center for Information Storage Device, Republic of Korea; 2Hitachi‐LG Data Storage, Republic ofKorea. This research investigates to analysis and to design the shock isolator to protect the pickup from the external shock during
shipping.
OMD8
Optical Disc Drives: A Study of Variation, Guilin Jiang1, Barry M. Lunt1, Travis Niederhauser2, Matthew Linford1; 1Brigham Young
University, USA; 2Millenniata, Inc., USA. Optical disc drives vary significantly in their performance. Here we report a principal
components analysis performed on data from new drives, which separates out the better performing drives and finds correlations
among drive test variables.
OMD9Iterative Decoding Method Using Two‐Dimensional Single Parity Code for Holographic Data Storage, Taehyung Kim1, Gyuyeol
Kong1, Sooyong Choi1; 1Yonsei University, Republic of Korea. Iterative decoding method using two‐dimensional single parity code
which ensures high code rate and low complexity compared to its performance gain is proposed. The proposed scheme gives theerror correction capability to constant weight block code.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort
OMD10
Optical Disc Life Expectancy: A Field Report, Barry M. Lunt1, Douglas Hansen2, Matthew Linford1; 1Information Technology,
Brigham Young University, USA; 2. The lifetime expectancy (LE) of optical discs has often been determined with accelerated testing.
This paper reports on the LE of discs subjected only to normal controlled conditions of temperature, humidity and light.
OMD11
Iterative Two‐dimensional Partial Response Maximum Likelihood Detection Method with Constant‐Weight Constraint Codefor Holographic Data Storage Systems, Gyuyeol Kong1, Sooyong Choi1; 1School of Electrical and Electronic Engineering, Yonsei
university, Republic of Korea. We propose an iterative 2D PRML detector. Two reduction schemes, reduced‐state trellis and constant‐weight constraint, are used to make detector structure simple. The proposed 2D PRML detector uses iterative detection to preventthe performance degradation.
OMD12High Density Recording with Guided‐Layer Media, In‐Gu Han1; 1.The possibility of a guided‐layer recording system is confirmedwith recording test using the two 405nm LDs. Recordable guided‐media is fabricated with a recording layer and a guide layer.
Recording capacity of 25 GB could be recorded on a flat recording layer.
OMD13
Simplified Decoding of Trellis‐Based Error‐Correcting Modulation Codes Using M‐Algorithm for Holographic Data Storage,
Jinyoung Kim1, Jaejin Lee1; 1. We investigate the simplified decoding of the trellis‐based error‐correcting modulation codes using M‐
algorithm for holographic data storage. When the M‐algorithm is used in trellis‐based error‐correcting modulation codes, the delay
and complexity problem can be reduced.
OMD14
A Simple Decoding Scheme for the Balanced 6/8 Modulation Code, Gukhui Kim1, Jinyoung Kim1, Jaejin Lee1; 1.
We propose the demodulation algorithm, which uses hard decision demodulation and has the same performance as whendemodulation algorithm is soft decision.
OMD15
InGeSbSnTe Phase Change Thin Film for Blu‐Ray Rewritable Optical Recording, Sin‐Liang Ou1, Po‐Cheng Kuo1, Han‐Feng
Chang2, Chin‐Yen Yeh2, Chao‐Te Lee3, Donyau Chiang3; 1Institute of Materials Science and Engineering, National Taiwan University,
Taiwan; 2CMC Magnetics Corporation, Taiwan; 3Instrument Technology Research Center, National Applied Research Laboratories, Taiwan.
The crystallization temperature of the In10GexSb52‐xSn23Te15 films (x = 2, 5, and 9) film is increased with increasing Ge content.
The optimum jitter value of the film with 4X recording speed is 6.6%.
OMD16
Evaluation of the Performance in Multilayer Collinear Holographic Memory with Movable Random Phase Mask, Atsushi
Shibukawa1, Atsushi Okamoto1, Akihisa Tomita1, Masanori Takabayashi1, Kunihiro Sato2, Masatoshi Bunsen3; 1Hokkaido University,
Japan; 2Hokkai‐Gakuen University, Japan; 3Fukuoka University, Japan. We demonstrated that introducing multi‐layered technique into
collinear holographic memory can realize higher quality holographic recording/reading and expand the storage density by a factorof 2 through homogeneous utilization of the recording medium.
OMD17
Nonlinear Equalization of the Super‐RENS Read‐out Signal Using the AANGD Algorithm with a Non‐causal Structure,
Seokhun Jeon1, Sungbin Im1; 1. To mitigate the nonlinearity in a super‐RENS read‐out signal we carry out equalization with the
AANGD algorithm. The experimental result demonstrates that the AANGD algorithm can effectively reduce the nonlinearity while
maintaining lower computational complexity.
OMD18
Real‐Time Optimization Method of Write Strategy for Optical Discs, Nobuo Takeshita1, Tomo Kishigami1, Koichi Ikuta2;
1Advanced Technology R&D Center, Mitsubishi Electric Corporation, Japan; 2Advanced Technology R&D Center, Mitsubishi Electric
Corporation, Japan. Real‐time write strategy optimization method for optical discs is proposed. Write strategy is continuously
optimized during recording against the variation of recording characteristics and environments. Effectiveness is experimentallyconfirmed with BD and DVD discs.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort

OMD19
Withdrawn
OMD20
CuSi thin film for write‐once blue laser optical recording, Sin‐Liang Ou1, Po‐Cheng Kuo1, Han‐Feng Chang2, Chin‐Yen Yeh2,
Chao‐Te Lee3, Donyau Chiang3; 1Institute of Materials Science and Engineering, National Taiwan University, Taiwan; 2CMC Magnetics
Corporation, Taiwan; 3Instrument Technology Research Center, National Applied Research Laboratories, Taiwan.
The thermal property, optical property and recording characteristics of the CuSi (16 nm) film were investigated. The optimum jitter
value of the film with 1X recording speed is 7.5% at 6 mW.
OMD21
Thermal mode photo‐resistor process discussion and applications, Hsiu‐Wen Wu1; 1Department Opto‐Electric engineering, National
Dong Hwa University, Taiwan. In this study, we report on use the thermal lithography technology to prepare the submicron structure
for antireflection application.
OMD22
High‐Speed Full Motion Analysis Based on FFT‐BPM for Collinear Holographic Memory, Hisatoshi Funakoshi1, Atsushi
Okamoto2, Masanori Takabayashi2, Yuta Wakayama2, Atsushi Shibukawa2; 1Faculty of Education, Gifu University, Japan; 2Graduate
School of Information Science and Technology, Hokkaido University, Japan. Our new analysis tool can be capable of calculations morethan 30 times faster than the previous method and enables to estimate practical memory densities including not only recording andreconstruction process but also error correction process.
OMD23
Modified 2D SOVA with 2D PR target for Holographic Data Storage, Keunhwi Koo1, Soo‐Yong Kim2,1, Jae Jin Jeung1, Sang Woo
Kim1; 1Electrical Engineering, POSTECH, Republic of Korea; 2Emerging SOC Group, Semiconductor Division, Samsung Electronics, Republicof Korea. Existing modified Two Dimensional Soft Output Viterbi Algorithm (2D SOVA) for Holographic Data Storage (HDS) uses a
1D SOVA about two different 1D PR targets (vertical and horizontal directions) and changed cost function of the 1D SOVA. In thispaper, we propose modified 2D SOVA with 2D PR target and new cost function of the 1D SOVA. For this cost function is
structurally modified from the 2D PR target form, the proposed method has a better performance of Bit Error Rate (BER) than theexisting method.

OME • Media/Fabrication
Kauai Ballroom, Ko’olau
17:15 ‐‐ 18:45
Atsushi Nakamura; Panasonic Corp. Japan;
Adam Urness; United States; Presiders
OME1 • 17:15
Invited
Identification of Vacancy Ratio in Crystalline GeTe Films, Fei Tong1, Xiangshui Miao1; 1.
XRD, XPS, SQUID and magnetism calculation based on spin‐polarized DFT of GeTe crystalline films with different Co‐doping havebeen studied to identify the vacancies in GeTe. The results show that Co occupies Ge vacancy and forms Co‐Te bond, and confirm
8% vacancy ratio in GeTe.
OME2 • 17:45
Lithographic Fabrication of Multi‐Layered Optical Data Storage, Adam Urness1; 1University of Colorado, USA.
We present a new fabrication method for multi‐layer ROM. Individual layers of an initially‐liquid holographic photopolymer are
photo‐patterned via mask projection and post‐cured to a solid. The process is repeated to efficiently print high‐density disks

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort
OME3 • 18:00
An Approach for Measurements of Optical Constants for Molten Sb2Te3 by Spectroscopic Ellipsometer, Masashi Kuwahara1,
Rie Endo2, Kouichi Tsutsumi3, Fukuyoshi Morikasa4, Tishio Fukaya1, Masahiro Susa2, Michio Suzuki3, Tomoyoshi Endo4; 1; 2Tokyo
Institute of Technology, Japan; 3J. A. Woollam Japan Co., Japan; 4Thermo Riko Co., LTD., Japan. We have succeeded in measuring opticalconstants from 350 nm to 1000 nm in wavelength for molten Sb2Te3 using a novel system consisting of a spectroscopic ellipsometerand an infrared heating system.
OME4 • 18:15
Improvement of Reconstructed Absorption Distribution in Data Storage Medium using Absorbers Embedded in Artificial
Scattering Medium, Masaya Nonaka1, Kouichi Nitta1, Osamu Matoba1; 1. We presented an improvement method of reconstructedabsorption distribution in data storage medium with absorbers embedded in artificial scattering medium. Numerical results
showed that thresholding operation reduced dramatically the size of the reconstructed absorption width.
OME5 • 18:30
Evaluation of Data Stability and Analysis of Degradation Factors for Archival Application of DVD+R Media, Kwan‐Yong Lee1;
1Center for information Storage Device, Yonsei University, Republic of Korea. For the archival application of optical disks, the degradation
factors and mechanism of DVD+R were studied through the observation of microstructure and chemical composition change atrecording marks and reflective layer after the acceleration test.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort• Tuesday, 19 July, 2011 •OTuA • Near‐field/Plasmonics
Kauai Ballroom, Ko’olau
08:00 ‐‐ 10:00
Din Ping Tsai; Department of Physics, National Taiwan University Taiwan; Presiders
OTuA1 • 08:00
InvitedNanophotonic Polishing of Substrate for Application to Hard‐Disk and Optical‐Disk Processing, Takashi Yatsui1, Wataru
Nomura1, Motoichi Ohtsu1; 1Univ of Tokyo, University of Tokyo, Japan. We report that nanophotonic polishing of a silica substrateusing a phonon‐assisted photochemical reaction drastically reduced the average surface roughness for application to hard‐disk andoptical‐disk processing.
OTuA2 • 08:30
InvitedApplication of SIL based Near Field Recording Technology to High Speed Nano Patterning, No‐Cheol Park1, Byung‐Kwon Min2,
Young‐Pil Park1, Hyunseok Yang1, Kyoung‐Su Park1, Sung‐Mook Kang1; 1Center for Information Storage Device, Republic of Korea;
2Department of Mechanical Engineering, Yonsei University, Republic of Korea. In this paper, we present a low‐cost and high‐throughput
approach to maskless nanolithography that uses a plasmonic solid immersion lens (SIL) optical head which consists of a SIL and a
sharp‐ridge nanoaperture for a high strong nanometer‐size optical spot.
OTuA3 • 09:00
High‐Speed and Precise Gap Servo System for Near‐Field Optical Recording, Daiichi Koide1, Takeshi Kajiyama1, Haruki
Tokumaru1, Yoshimichi Takano2, Yuta Nabata3, Tokoku Ogata3, Toshimasa Miyazaki3, Kiyoshi Ohishi3; 1NHK (Japan Broadcasting
Corp.), Japan; 2NHK Engineering Service, Japan; 3Nagaoka University of Tehcnology, Japan. We propose a high‐speed and precise gap
servo of reducing harmonics of axial run‐out disturbance‐feed‐forward control for near‐field recording. We could perform gap
servo at 11000 rpm applying RHD‐FFC using SIL head and 100GB disk.
OTuA4 • 09:15
Trans‐ABS Power Coupling Efficiency of Near Field Transducers for HAMR Calculated with Finite Element Modeling, Matt
Chabalko1, Tuviah E. Schlesinger1, Daniel D. Stancil1, Yi Luo1, James A. Bain1; 1Electrical and Computer Engineering, Carnegie Mellon
University, USA. We compute the efficiency of coupling between the end of various small plasmonic waveguide NFTs and magnetic
media for HAMR. Coupling ranges from 10‐80% and is a strong function of geometry and material properties.
OTuA5 • 09:30
Withdrawn
OTuA6 • 09:45
Shift and Polarization Multiplexing for SIL based Near‐Field Holographic Recording, Cheol‐Ki Min1, Do‐Hyung Kim2, Janghyun
Cho2, No‐Cheol Park1, Kyoung‐Su Park1, Hyunseok Yang1, Young‐Pil Park1; 1Department of Mechanical Engineering, Yonsei University,
Republic of Korea; 2Center for Information Storage Device, Yonsei University, Republic of Korea. In this paper, we investigate a SIL basednear‐field holographic recording that combines the advantages of two systems, such as tightly focused spot of SIL in NFR and two
multiplexing methods of holographic storage.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort

OTuB • Femtosecond Applications/Phase‐change
Kauai Ballroom, Ko’olau
10:30—12:30
Masud Mansuripur; College of Optical Sciences, The University of Arizona United States; Takashi Kikukawa; TDK Corp Japan; Presiders

OTuB1 • 10:30
InvitedUltrafast Coherent Switching of Phase‐Change in Rewritable Optical Media, Muneaki Hase1, Kotaro Makino1, Junji Tominaga2;
1Institute of Applied Physics, University of Tsukuba, Japan; 2Nanodevice Innovation Research Center, National Institute of Advanced Industrial
Science and Technology, Japan. We demonstrate in Ge2Sb2Te5 superlattice that the phase change from amorphous into crystalline
states can be manipulated within ~ 1 picosecond by coherent excitation of the local lattice vibration using a pair of femtosecond
laser pulses.
OTuB2 • 11:00
InvitedFemtosecond nanoscale phase‐change dynamics in GeSbTe thin films,T. Hira1, Y. Hongo1, K. Tajima1, N. Kitamura1, T. Homma1,
Toshiharu Saiki1; 1Department of Electronics and Electrical Engineering, Keio University, Japan. Sub‐picosecond nonthermal
amorphization of a GeSbTe thin film with femtosecond laser pulse excitation and complete switching of the surface plasmon
resonance of a single Au nanoparticle that accompanies an ultrafast phase change were demonstrated.
OTuB3 • 11:30
InvitedFemtosecond Laser Based Polarization Multilevel Storage, Wenhao Huang1, Yanlei Hu1; 1. We summarize femtosecond laser
based high‐density data storage achieved by various photochemical mechanisms, including photochromism, photobleaching andmicroexplosion, and focus on rewritable polarization‐multiplexed and multilevel storage in photoisomeric material.
OTuB4 • 12:00
InvitedNano Phase Change for Data Storage and Beyond, Luping Shi1; 1Data Storage Institute, A*star, Singapore.
This work has systemically investigated the nano‐phase change in terms of the materials’ different properties against thedimension. The future development trend after reaching scaling limitation is discussed.

OTuC • Drive Technologies/Signal Processing
Kauai Ballroom, Ko’olau
14:00—15:30
Hajime Ishihara; Hitachi, Ltd. Japan;
Satoru Higashino; Sony Corp. Japan; Presiders
OTuC1 • 14:00
A Robust Adjacent Track Servo System with Linear Positioning Method, Yoshiyuki Urakawa1, Yoshihiko Deoka1, Yuichi Suzuki1,
Tomoharu Mukasa1, Junichi Horigome1; 1Core Device Development Group, Sony Corporation, Japan. A multi‐layer disk without guidegroove enables a large capacity and price competitive optical disk. We propose a novel tracking servo system which is robust andaccurate for disks without groove.
OTuC2 • 14:15
Read Data Transfer Rate Estimation on Optical Phase Multilevel Recording, Atsushi Kikukawa1, Hideharu Mikami1, Tatsuro Ide1,
Kentaro Osawa1, Koichi Watanabe1; 1. The inter‐symbol interference in optical phase multilevel recording was solved by using
multilevel PRML and it was estimated that the read data transfer rate can be at least doubled provided that signal‐to‐noise ratio isequivalent to current optical drives.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort
OTuC3 • 14:30
Inter‐track Crosstalk Canceling PRML Decoder for High Density Optical Disc, Hajime Ishihara1, Yusuke Nakamura1, Taku
Hoshizawa1; 1Yokohama Research Laboratory, Hitachi, Ltd., Japan. To correspond to density growth by applying narrower track pitch,
we developed an inter‐track crosstalk canceling PRML decoder. As the result, we confirmed the feasibility of 44GB capacity a layer
on a simulation model.
OTuC4 • 14:45
High Precision Feedforward Tracking Control System for Next Generation Optical Disks, Tokoku Ogata1, Yuta Nabata1, Tatsuya
Nakazaki1, Kiyoshi Ohishi1, Toshimasa Miyazaki1, Masaki Sazawa1, Daiichi Koide2, Yoshimichi Takano2, Haruki
Tokumaru2;1Nagaoka University of Technology, Japan; 2Science and Technology Research Laboratories, Japan Broadcasting Corp., Japan. This
paper proposes a new high‐precision feedforward tracking control system in single‐rate sampling. The experimental results confirm
that the proposed system well suppresses the tracking error on condition of disk rotation speed 7200[rpm] DVD. Therefore, theproposed system realizes high‐precision tracking control.
OTuC5 • 15:00
Dynamic Characteristics of Optical Disk over 15,000 rpm Close to a Rigid Wall, Seungho Lim1, Wonseok Oh1, Byunghan Ko1,
Ungrae Cho2, Kyoung‐Su Park1, No‐Cheol Park1, Young‐Pil Park1, Han‐Baek Han3; 1Center for Information Storage Device, Republic ofKorea; 2LIG Nex1 Co. Ltd., Republic of Korea; 3Hitachi‐LG Data Storage Korea, Inc., Republic of Korea. In this research, the dynamic
characteristics of optical disk in slim drive over 15,000 rpm are identified considering the aerodynamic effect using CFD, FEM, andanalytical method.
OTuC6 • 15:15
System Identification Using Embedded Dynamic Signal Analyzer, Soo‐Yong Kim1,2, Xuezhen Mao1, Junho Huh1, Keunhwi Koo2,
Sang Woo Kim2; 1Emerging SOC Development, Samsung Electronics Co., Republic of Korea; 2Eletrical Engineering, Pohang University of
Science and Technology, Republic of Korea. To identify system dynamics of a control system, proposed embedded dynamic signal
analyzer (EDSA) enables system to sense stability criterion. The EDSA consists of a digital resonator and a signal processing block.

Kauai Court, Coffee Break, 15:30 – 16:00

OTuD • ISOM/ODS Poster Session II
Puna Ballroom
15:30—17:00
OTuD1
Soft‐Decision Viterbi Decoding Scheme and A New Reliability Metric for 4/6 Modulation Code in Holographic Data Storage,
Yong‐ok Kim1, Gyuyeol Kong1, Sooyong Choi1; 1. We propose the soft‐decision Viterbi decoding with higher data rate for 4/6
modulation code. In order to define the branch metric on trellis, we introduce a new reliability for 4/6 modulation code.
OTuD2
Nonlinear Equalizer for Signal Improvement of Holographic Data Storage, Yasuyuki Yamagishi1; 1. In this paper, we applied
Volterra equalizer and QMMSE equalizer to reconstructed images suffered from ISI due to aberration from the optical systems forthe improvement of signal quality.

OTuD3
Line Tracking Applied Data Acquisition Method for Holographic Data Storage System, Jae‐Seong Lee1; 1. The virtual detector isused which follows rows of image such as track of CD, acquiring pixel value in such location. The suggested method could
compensate the image distortion without any data density loss.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort

OTuD4
Simplified Two‐Dimensional Partial Response Maximum Likelihood Detection Method Using a Priori Information for
Holographic Data Storage Systems, Gyuyeol Kong1, Sooyong Choi1; 1School of Electrical and Electronic Engineering, Yonsei university,
Republic of Korea. We propose a simplified 2D PRML detector. Two types of the simplification, reduced‐state trellis and PR target
selection, are used. To overcome the performance degradation owing to the reduced‐state trellis, we use a priori information.
OTuD5
Degradation Headroom: Another Issue for Archival Optical Discs, Barry M. Lunt1, Erin Bourgeous1, Bradley M. Lunt1; 1.
Degradation headroom is the difference between the as‐recorded quality of the written data, and the degree to which the written
data can degrade and still be read. This is important for permanent recordable optical discs.
OTuD6
Super‐Resolution Photonics for Advanced Storage Systems (SURPASS), Peter Török1; 1Imperial College London, United Kingdom.
SURPASS aims to develop and combine two superresolution technologies, namely near field detection with μSILs and “active”
material layers with a view to applications in data storage and microscopy. We report on current progress.
OTuD7
Manipulation of Multi‐Dimensional Plasmonic Spectra for Information Storage, Wei Ting Chen1, Pin Chieh Wu1, Chen Jung
Chen1, Chun‐Jen Weng2, Hsin‐Chen Lee3, Ta‐Jen Yen3, Chieh‐Hsiung Kuan4, Masud Mansuripur5, Din Ping Tsai1,2; 1Department of
Physics, National Taiwan University, Taiwan; 2Instrument Technology Research Center, National Applied Research Laboratory, Taiwan;
3Department of Materials Science and Engineering, National Tsing Hua University, Taiwan; 4Department of Electrical Engineering, National
Taiwan University, Taiwan; 5College of Optical Sciences, The University of Arizona, USA. We demonstrate a concept to enhance thecapacity of optical data storage through plasmonic resonances of metallic nano‐structures. Metallic nano‐structures exhibit strong
variations in their optical spectra due to surface plasmon resonances. It should be possible to store and retrieve data from eachplasmonic spectra.
OTuD8
Turbo equalization between Partial Response Maximum Likelihood Detector and Viterbi decoder for 2/4 Modulation Code in
Holographic Data Storage Systems, Gyuyeol Kong1, Sooyong Choi1; 1School of Electrical and Electronic Engineering, Yonsei university,
Republic of Korea. We propose the turbo equalization between the PRML detector and joint Viterbi decoder combined by 2/4
modulation and convolutional decoder. By iterative process, we obtain better BER performance compared with the conventional 1D
PRML detector.
OTuD9
Two‐Dimensional Equalization Using Bilinear Recursive Polynomial Model for Holographic Data Storage Systems, Taehyung
Kim1, Gyuyeol Kong1, Sooyong Choi1; 1. In order to improve the performance of equalization in quadratic holographic channel, an
equalizer using two‐dimensional binary recursive polynomial (BRP) model and its modified form of equalizer using BRP withdecision feedback (BRPDFE) are proposed.
OTuD10A Dual Layer Blu‐ray Recordable Disc with Improved Archive Lifetime, Kun‐Long Li1, Ying‐Yen Huang1, Yung‐Hui Hung1,
Cheng‐Pi Li1, Min‐Hao Pan1; 1CMC Magnetics Corporation, Taiwan. A dual layer BD‐R disc with improved archive lifetime isintroduced. After hundreds hours high temperature chamber test, measured jitter value remains within Specification. Arrhenius
plot shows the theoretical archive lifetime more than 50 years in this dual layer BD‐R disc.
OTuD11
Soft‐Encoding Scheme of 3/4 Tone‐Controllable Code for Channel Iteration of LDPC Code on the Holographic Data Storage,
Donghyuk Park1, Jaejin Lee1; 1. In holographic data storage system, if we use the LDPC code as an error correction code then weneed the soft‐encoding scheme for channel iteration. So, we proposed the soft encoder of 3/4 tone‐controllable code.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort

OTuD12
Double‐Referential Collinear Holographic Memory and Spatial Quadrature Amplitude Modulation, Keisuke Zukeran1, Atsushi
Okamoto1, Atsushi Shibukawa1, Masanori Takabayashi1; 1.A double‐referential method, in which the reference light necessary forphase detection can be generated as diffraction light of the optical hologram automatically, is newly proposed. 16‐SQAM signals
can be reconstructed through dual‐stage holography.
OTuD13Hyper Numerical Aperture Blu‐ray Disc Recording,Youngsik Kim1, Tom D. Milster1; 1College of Optical Sciences, University of
Arizona, USA. We develop a hyper numerical aperture Blu‐ray disc(HBD) recording system with a solid immersion lens(SIL). We
use a phase change recording media with a 100μm cover‐layer. The HBD pick‐up consists of a SIL with a numerical aperture of 1.41
and a laser of 408nm.
OTuD14
Increasing Storage Density of Page‐based Holographic Data Storage System by Image Restoration using PSF of Nyquist
Aperture, Sang‐Hyuck Lee1, Sung‐Yong Lim2, Nakyeong KIm2, No‐Cheol Park1, Hyunseok Yang2, Kyoung‐Su Park1, Young‐Pil
Park1; 1; 2Yonsei University, Republic of Korea. The Nyquist aperture is used to increase the storage density. To reduce the bit errors
caused by the Nyquist aperture, we applied an image restoration method which restores the degraded image in the enhanced
spatial frequency domain using its PSF as a restoration filter.
OTuD15
Measurements of Nonlinear Mark Edge Shift for Phase Change Optical Disk Systems, Takaya Tanabe1, Kohei Okubo1, Tsutomu
Ansai1; 1Ibaraki National College of Technology, Japan. A method for evaluating the nonlinear mark edge shift of the phase change
optical disk using auto‐correlations of readout signals was presented and verified.
OTuD16
Nondestructive Readout of Photochromic Memory using Photocurrent Switching, Tsuyoshi Tsujioka1; 1Osaka Kyoiku University,
Japan. The photoisomerization of diarylethene (DAE) molecules switched the photocurrent. The switching is based on an ionization
potential change of the DAE molecules. Excellent ON‐OFF ratio and more than 800x10^3 readout cycles was demonstrated.
OTuD17
Super‐resolution photoinduction‐inhibition nanoscopy enabled three‐dimensional optical data storage, Xiangping Li1, Yaoyu
Cao1, Min Gu1; 1Centre for Micro‐Photonics, Swinburne University of Technology, Australia. In this paper we report on the using
photoinduction‐inhibition method to break the diffraction limit. Super‐resolved recording bits as well as their application in three‐dimensional optical data storage have been demonstrated
OTuD18Nano‐ structure on Si‐substrate by Using Innovative Nano‐lithography Processes, You‐Chen Weng1; 1department of Opto‐electronic
Engineering, National Dong Hwa Unversity, Taiwan. using inorganic photo resist material with composition GeSbSnOx tonanolithrography process ,to fabricate nano honeycomb structure .The reflectance of the nanostructure in near visible light is
8~13%.
OTuD19Signal Properties and Microstructure of Write‐Once Blu‐ray Disc Containing Cu‐Al Alloy/Si Bi‐layer as the Recording Medium,
Hung‐Chuan Mai1, Tsung‐Eong Hsieh1, Shiang‐Yao Jeng2; 1Department of Materials Science and Engineering, National Chiao Tung
University, Taiwan; 2Prodisc Technology Inc, Taiwan. Signal properties and microstructure of write‐once blu‐ray (BD‐R) disc containing
Cu‐Al alloy/Si bi‐layer were investigated. Recording mechanism correlated to the formation of Cu‐ and Si‐rich solid‐solution phases
and preliminary annealing in the marks was observed.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort

OTuD20Research For Crosstalk And Black Matrix For 3D Display, Der‐Ray Huang1, Tzu‐Chien Lin1, Fu‐Ha0 Chen2; 1Department of Opto‐
Electronic Engineering, NDHU, Taiwan; 2Electro‐Optics Laboratories, ITRI, Taiwan. In 3D‐lenticular display often use slanted lenticular
to reduce Dead‐zone problem, but in this kind of display the crosstalk will increasing with the slant angle ; to resolve this issue . By
this way, we can eliminate the problems of overlapping and cresstalk, according to the simulation of ASAP we can verify the results
is a feasible way to the 3D‐lenticular display. In this research, I propose a spatial multiplexed auto‐stereoscopic display withbinocular parallax , motion parallax , multi‐viewing zones and high resolution .
OTuD21
Nanofabrication for multi states of Ge2Sb2Te5 by femto‐second laser induced forward transfer, Ming Lun Tseng1, Bo Han Chen1,
Cheng Hung Chu1, Chia Min Chang1, Hai‐Pang Chiang2, Din Ping Tsai3,4; 1Physics, National Taiwan University, Taiwan; 2Institute of
Optoelectronic Sciences, National Taiwan Ocean University, Taiwan; 3Instrument Technology Research Center, National Applied ResearchLaboratories, Taiwan; 4Research Center for Applied Sciences, Academia Sinica, Taiwan. The nano patterns of phase‐change material
Ge2Sb2Te5 are fabricated by the femto‐second laser‐induced forward transfer. The size and the phase state of the Ge2Sb2Te5
patterns can be effectively controlled by varying the laser fluence and film thickness. Also, the multilevel electronic states offabricated patterns are observed through the C‐AFM . This research has great potential in the area of the optical and the electrical
data storage.

OTuE • Hybrid Recording (Special Session)
Kauai Ballroom, Ko’olau
19:00—21:30
Lambertus Hesselink; Department of Electrical Engineering, Stanford University United States;
No‐Cheol Park; Center for Information Storage Device Korea, Republic of Korea; Presiders

OTuE1 • 19:00
InvitedEnergy Assisted Magnetic Recording, Francis Liu1; 1Western Digital, USA. Abstract not available.
OTuE2 • 19:30
Invited
Adjoint FDTD for Nanophotonic Device Optimization, Paul Hansen1, Yuxin Zheng2, Eugene Perederey1, Lambertus Hesselink1,2;
1Applied Physics, Stanford Univ‐Geophysics Dept, USA; 2Electrical Engineering, Stanford University, USA. We present a numerical
technique for optimization of nanometallic structures. The sensitivity of optical behavior with respect to the nanostructureʹs shape
may be efficiently obtained with two FDTD simulations and used for automatic optimization.
OTuE3 • 20:00
InvitedHybrid Recording Technology, Tom Clinton1; 1Research, Hitachi Global Storage Technologies, USA. Abstract not available.
OTuE4 • 20:30
InvitedNear Field Optical Characterization and Mechanical Flying Stability for HAMR., Young‐Joo Kim1; 1School of MechanicalEngineering, Yonsei University, Republic of Korea. Abstract not available.
OTuE5 • 21:00
InvitedFuture of magnetic recording, Liu Bo1; 1Intermag, Canada. Abstract not available.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort• Wednesday, 20 July, 2011 •OWA • Micro‐hologram
Kauai Ballroom, Ko’olau
10:30—12:00
Yuzuru Takashima; Stanford University, Electrical Engineering Department United States;
Kimihiro Saito; Sony Corporation Japan; ; Presiders

OWA1 • 10:30
InvitedRecent Progress on Micro‐holographic Data Storage, Eugene P. Boden1, Kwok P. Chan1, Dmitry V. Dylov1, Evgenia M. Kim1, Peter
W. Lorraine1; P. J. McCloskey1, M. J. Misner1, A. Natarajan1, Victor Ostroverkhov1; J. E. Pickett1, Xiaolei Shi1, Yuzuru Takashima1,2,
V. H. Watkins1; 1GE Global Research Center, USA; 2Stanford University, USA. Advances in micro‐holographic materials and systems
are presented. New materials show improved index change (10x) and sensitivity (100x) at >3x lower intensity vs. previously
reported. Experimental results supporting single‐sided optical drive concept is presented.

OWA2 • 11:00
Invited
Subdiffraction Microholograms in a Single‐Photon, Uniformly Inhibited System, Robert R. McLeod1, Benjamin A. Kowalski1,
Michael Cole1; 1Dept. of Electrical and Computer Eng, Univ. of Colorado at Boulder, USA. Microholograms well below the diffraction
limit are demonstrated in a photopolymer system with uniformly distributed inhibitor. This enables both increased storage density
and increased readout signal via suppression of out‐of‐focus exposure. A model of the micron‐scale reaction kinetics of the system
is presented.
OWA3 • 11:30
Experimental Demonstration of Optical Phase Multi‐Level Recording in Microhologram, Hideharu Mikami1, Kentaro Osawa1,
Koichi Watanabe1; 1Hitachi, Ltd., Central Research Laboratory, Japan. Optical phase was experimentally recorded in microholograms.
Four‐level phase modulation was successfully regenerated from weak 30‐nW microholograms with errors of +7.0/‐12.2 degrees,suggesting a further increase in the number of levels is possible.
OWA4 • 11:45
Proposal for Rewritable Microholographic Recording Using Polarization‐Sensitive Materials,
Ryuichi Katayama1, Shin Tominaga2; 1Fukuoka Institute of Technology, Japan; 2NEC Corporation, Japan. Rewritable microholographic
recording using polarization‐sensitive materials, in which polarization directions of a beam are recorded, is proposed. Polarization
states for beams in the medium are switched with switchable waveplates. Recording and readout principles are explained.

OWB • Volume Recording
Kauai Ballroom, Ko’olau
14:00—15:30
James Chon; Swinburne University of Technology Australia;
Tom Milster; University of Artizona United States; Presiders
OWB1 • 14:00
Invited
Progress on Micro‐reflector optical disc system, Kimihiro Saito1, Seiji Kobayashi1; 1Sony Corporation, Japan.
We review the Micro‐Reflector optical disc system and report on an approach to investigate void formation recording mechanismwith a computer simulation.

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • Marriot Kauai Beach Resort
OWB2 • 14:30
InvitedRecent Progress On Gold Nanorod Based 5D Optical Storage, James W. Chon1; 1Centre for Micro‐Photonics, Faculty of Engineering
and Industrial Sciences, Swinburne University of Technology, Australia. In this talk, I will discuss how the detuned scattering from gold
nanorods can potentially replace the two‐photon luminescence readout scheme in the future optical storage medium based on gold
nanorods.
OWB3 • 15:00
Reduction of Interlayer Crosstalk in Multilayer Optical Disc by using Phase‐Diversity Homodyne Detection, Tatsuro Ide1,
Kentaro Osawa1, Hideharu Mikami1, Koichi Watanabe1; 1. We studied interlayer crosstalk in using phase‐diversity homodyne
detection on a multilayer optical disc. Simulations and experiments on a dual‐layer disc having a layer spacing less than 10 μm
showed that phase‐diversity homodyne detection provided higher tolerance to interlayer crosstalk than the conventional intensity
detection.
OWB4 • 15:15
Design and Implementation of Zoom Objectives for Multi‐layer Optical Data Storage, Yuzuru Takashima1; 1.
A zoom objective lens has been designed and implemented based on a newly proposed power arrangement having a constant focal
length and a linear movement of single zooming component for selection of recording layers.

Kauai Court, Coffee Break, 15:30 – 16:00

Kauai Ballroom, Ko’olau, Postdeadline Papers, 16:00 – 17:00

Joint International Symposium on Optical Memory &Optical Data Storage (ISOM/ODS) • 17 –20 July 2011

Key to Authors and Presiders(Bold denotes Presider or Presenting Author)
A
Abbott, Stephen-NTuC5
Abel, Keith A-NThB1
Adachi, MuneyukiNTuD1
Adams, Daniel E-NThA4
Agrawal, Amit-NTuE5
Ahn, Jaewook-NFB5
Ajami, Aliasghar-NMD6
Ajayan, Pulickel MNFB2
Akagi, Hiroshi-NTuB2
Akahane, KouichiNTuB1
Alberucci, AlessandroNWE4, NWE7
Almási, Gábor-NMC7
Amazutsumi, KojiNTuE3
Andreana, MarcoNTuC4
Ansai, Tsutomu-OTuD15
Arissian, Ladan-NFB4
Asai, Kazuhiro-NMC1
Assanto, Gaetano-NWE4,NWE7Boudebs, GeorgesNTuA5, NWE21
Bouhelier, Alex-NTuA2
Boulanger, BenoîtNMA3, NTuD
Bourgeous, Erin-OTuD5
Boyd, Robert-NWC2
Brambilla, GilbertoNTuD7
Brauckmann, NicolettaNWD1Broderick, Neil GNTuD7
Buckley, Sonia-NWC5,NWE11Budunoglu, Ibrahim
Levent-NWE20
Bunsen, MasatoshiOMD16
Burkhead, David LOMD2
Butler, James J-NTuF3
Byer, Robert L.-NME,
NME4, NWB2
Béjot, Pierre-NFB1,
NTuB

B
Bache, Morten-NTuA7
Badikov, Dmitrii-NMA2
Badikov, Valeriy-NMA2
Bain, James A-OTuA4
Baltuška, AndriusNThA1
Bang, Ole-NTuA1,
NTuA7, NWE16
Barad, Shimshon-NTuE6
Barbastathis, GeorgeNTuC7
Barbosa, Geraldo ANMB6
Barth, Johannes-NTuA3
Barzda, VirginijusNThB5, NWE14, NWE5
Beadie, Guy-NTuF3
Becher, Christoph-NMB3
Bertrand, AnthonyNTuC4
Bhandari, Rakesh-NME2
Bloembergen, NicolaasNWA2
Bo, Liu-OTuE5
Boden, Eugene P-OWA1
Bogy, David-OMA3
Bonville, O.-NThA2

C
Canalias, Carlota-NMA,
NTuD4
Cao, Yaoyu-OTuD18
Cederberg, JeffreyNMC2Cha, Myoungsik-NTuD3
Chabalko, Matt-OTuA4
Chalopin, Beniot-NFA1
Chan, Che Ting-NTuA6
Chan, Han-Sung-NFA4
Chan, Ho Bun-NTuA6
Chan, Kwok P-OWA1
Chang, Chia MinOTuD22
Chang, Han-FengOMD15, OMD20
Chen, Bo Han-OTuD22
Chen, Chen Jung-OTuD7
Chen, Chien-ChunNThA4
Chen, Fu-Ha0-OTuD21
Chen, Hong-NThD4
Chen, Wei Ting-OTuD7
Chernoff, Donald AOMD2Chi, San-Hui-NTuF3
Chia, Cheow WeeOMD19

Chiang, DonyauOMD15, OMD20
Chiang, Hai-PangOTuD22
Cho, Janghyun-OTuA6
Cho, Ungrae-OTuC5
Choi, Hee Joo-NTuD3
Choi, Soobong-NMD2
Choi, Sooyong-OMD11,
OMD3, OMD9, OTuD1,
OTuD4, OTuD8, OTuD9
Chon, James W. M.OWB, OWB2
Christodoulides,
Demetrios-NThB,
NTuC1
Chu, Cheng HungOTuD22
Chu, Yiwen-NWC1
Chuu, Chih-Sung-NWE8
Cirloganu, ClaudiuNMD4
Cisek, Richard-NThB5,NWE5Clinton, Tom-OTuE3
Codemard, ChristopheNTuD7
Cole, Michael-OWA2
Couderc, Vincent-NTuC4
Cserteg, Andras-NTuC4
Cundiff, Steven-NFA,
NMD2

D
D'Alessandro,
Gaimpaolo-NTuC5
Daly, Keith R-NTuC5
Dattelbaum, Andrew MNFB2
de Araújo, Cid B.NTuA5
de Valcarcel, German JNFA1
Deleglise, SamuelNTuF4
Deoka, YoshihikoOTuC1
Diddams, Scott-NWD4
Ding, Edwin-NThC3
Dixon, Paul B-NMB1
Downer, Michael CNTuB5
Dreisow, Felix-NTuC2
Du, Juan-NTuF2
Duan, Zhongchao-NWE9
Ducci, Sara-NTuE2

Dudley, John M-NTuC6
Duncan, Timothy VNTuF3
Durst, S.-NThA2Duterte, Charles-NTuC4
Dylov, Dmitry V-OWA1

E
Ehlert, Robert-NTuB5
Eilenberger, FalkNThB6, NThB7
Elahi, Parviz-NWE20
Elazar, Moshe-NTuE6
Elezzabi, Abdul-NTuB3
Elsass, Tiffany-NME3
Ema, Kazuhiro-NTuB1
Endo, Rie-OME3
Endo, Tomoyoshi-OME3
Ensley, Trenton RyanNThC6
Erkintalo, Miro-NTuC6
Ernstorfer, Ralph-NTuA3

F
Fabre, Claude-NFA1,
NWDFalcão-Filho, Edilson LNTuA5
Fallnich, Carsten-NWD1
Fan, Shanhui-NMB4
Faraud, Emeric-NMD5
Favero, Ivan-NTuE2
Feaver, Ryan-NME7
Fedus, Kamil-NWE21
Fejer, Martin-NMA1,
NTuF
Feng, Jinxia-NFA1
Fishman, Dmitry ANMD4, NThC6, NWE12
Fishman, Shmuel-NTuC3
Fleurov, Victor-NTuE6
Flom, Steven-NTuF3
Foell, Charles-NThB1
Foltynowicz, RobertNME8Foreman, Matthew RoyOMD1
Freedman, Barak-NTuC3
Fries, Christian-NThC5
Fukaya, Tishio-OME3
Fukuchi, Yutaka-NWE13
Funakoshi, HisatoshiOMD22
Fülöp, Jozsef AndrasNMC7

G
Gaeta, Alex-NMD1,
NThD1
Galande, Charudatta CNFB2
Galvanauskas, AlmantasNTuE7
Gao, Hanhong-NTuC7
Gao, Jian-NTuA4
Gao, Weiqing-NWE9
Gauthier, Daniel-NWB
Gavartin, EmanuelNTuF4
Genty, Goëry-NTuC6
Gerster, Daniel-NTuA3
Ghiglieno, FilippoNTuE2
Giannone, DomenicoNTuC4
Gray, Gary M-NWE19
Gross, Petra-NWD1
Gu, Min-OMD6,
OTuD18
Gu, Xiaorong-NMB2
Gürel, Kutan-NWE20
HHagan, David J-NMD4,
NThC6, NWE12Halonen, Lauri-NME5
Han, Han-Baek-OTuC5Han, In-Gu-OMD12Hang, Zhi Hong-NTuA6
Hansen, DouglasOMD10
Hansen, Paul-OTuE2Hara, Kenjiro-NMA5
Harada, Masaki-NTuD1
Harris, Steve-NMB,
NWA1, NWC3, NWE8
Hase, Muneaki-OTuB1
Hasegawa, TatsuyaOMB2
Hasselbeck, MichaelNMC2Haus, Joseph W-NTuA4
Hayashi, Shin'ichiroNWE23
Hayat, Alex-NMD3,NWE6Hebling, János-NMC7
Heinrich, MatthiasNTuC2
Hernandez, Yves-NTuC4
Hesselink, LambertusOMA1, OTuE , OTuE2
Higashino, Satoru-OTuC

Higuchi, Takuya-NMD7,
NMD8, NWE2
Hilaire, Stéphane-NTuC4
Hira, T.-OTuB2
Hirmiz, Nehad-NThB5
Homma, T.-OTuB2
Hongo, Y.-OTuB2
Honma, Satoshi-OMB2,OMD5Horigome, JunichiOTuC1
Hosaka, Kouichi-NTuB2
Hosaka, Makoto-OMB5,
OMB6
Hoshizawa, Taku-OMB5,
OMB6, OTuC3
Howell, John-NMB1,
NWC
Hsieh, Tsung-EongOTuD20
Hsieh, Zhi-Ming-NFA4
Htoon, Han-NFB2
Hu, Honghua-NWE12
Hu, I-Ning-NTuE7
Hu, Yanlei-OTuB3
Hua, Xia-NFA5
Huang, Da-NTuD2
Huang, Der-RayOTuD21
Huang, Kun-NMB2
Huang, Wenhao-OTuB3
Huang, Ying-YenOTuD10
Huang, Yuping-NMB6,
NWE1
Huh, Junho-OTuC6
Hung, Yung-HuiOTuD10
Husinsky, WolfgangNMD6Huss, Guillaume-NTuC4
Huxlin, Krystel R-NTuF1

I
Ide, Tatsuro-OMC4,
OTuC2, OWB3
Ikeda, Masao-OMC1
Ikuta, Koichi-OMD18
Ikuta, Tomoya-NTuB2
Ilchenko, VladimirNWD2Ilday, Fatih-NThC2,NWE20
Im, Sungbin-OMD17
Ishi-Hayase, JunkoNTuB1
Ishihara, Hajime-OMB5,
OTuC, OTuC3
Ishihara, Yuta-OMB2Ishii, Norihiko-OMB1
Ishii, Toshiki-OMB5,OMB6Ishizuki, Hideki-NMA4
Itakura, Ryuji-NTuB2
Ito, Hiromasa-NMC1,
NTuF5
Iwamoto, KazuhiroNTuE4
J
Jain, R. K-NThB3
Jeng, Shiang-YaoOTuD20
Jeon, Seokhun-OMD17
Jepsen, Peter U-NWE16
Jeung, Jae Jin-OTuD17
Jian, Pu-NFA1
Jian, Yi-NMB2
Jiang, Guilin-OMD8
Jirauschek, ChristianNThC2
Jordan, Andrew-NMB1
Jung, Yongmin-NTuD7
K
KIm, Nakyeong-OTuD14
Kaczmarek, MalgosiaNTuC5, NWE7
Kajiyama, TakeshiOTuA3
Kamijo, Koji-OMB1
Kanda, Natsuki-NMD7,
NMD8, NWE2
Kang, Sung-MookOTuA2
Kannari, FumihikoNTuB2
Kapteyn, Henry CNThA1, NThA4
Karpowicz, NIcholasNTuA3
Kashyap, Raman-NTuD6
Katagai, Toshio-NTuD5
Katayama, RyuichiOMC, OWA4
Katsuragawa, MasayukiNMB5Katte, Nkorni-NTuA4
Katzenmeyer, AaronNMC2Kawamata, HiroshiNMC5, NTuF5
Kawase, Kodo-NMC3,
NWE23
Kawata, YoshimasaOMA
Keil, Robert-NTuC2
Keshav, Dani M-NFB2

Kienberger, ReinhardNTuA3
Kikuchi, Hiroshi-OMB1
Kikukawa, AtsushiOTuC2
Kikukawa, TakashiOTuB
Kim, Byoung JooNTuD3
Kim, Do-Hyung-OTuA6
Kim, Evgenia M-OWA1
Kim, Gukhui-OMD14
Kim, Hyochul-NWC5
Kim, Jae-uk-NFB5
Kim, Jang Hyun-OMD4Kim, Jinyoung-OMD13,
OMD14
Kim, Sang Woo-OTuC6,
OTuD17
Kim, Soo-Yong-OTuC6,
OTuD17
Kim, Taehyung-OMD9,OTuD9Kim, Yong-ok-OMD3,
OTuD1
Kim, Young-Joo-OTuE4
Kim, Youngsik-OTuD13
Kimura, ShigeharuOMC4
Kinoshita, NobuhiroOMB1
Kippenberg, Tobias JanNTuF4
Kishigami, TomoOMD18
Kitamura, N.-OTuB2
Kivshar, Yuri S-NMB7,
NThB7
Klimov, Victor I.NThD5
Klopfer, Mike-NThB3
Knox, Wayne H-NMD,
NTuF1
Ko, Byunghan-OTuC5
Kobayashi, Seiji-OWB1
Kobayashi, TakayoshiNTuF2
Kocabas, Sukru E-NMB4
Koide, Daiichi-OTuA3,
OTuC4
Kokh, A.-NThA2
Kokh, K.-NThA2
Kondo, Takashi-NTuE3,
NTuE4
Kong, Gyuyeol-OMD11,
OMD3, OMD9, OTuD1,
OTuD4, OTuD8,OTuD9Konishi, Kuniaki-NMD7,
NWE2

Kononova, N.-NThA2
Koo, Keunhwi-OTuC6,
OTuD17
Kowalski, Benjamin AOWA2
Krasavin, Alexey-NTuA2
Krausz, Ferenc-NTuA3
Krivolapov, YevgenyNTuC3
Krolikowski, WieslawNTuA1, NTuC
Kuan, Chieh-HsiungOTuD7
Kues, Michael-NWD1
Kumar, Prem-NMB6,NWE1Kung, Andy-NFA4
Kunori, Keisuke-OMB3
Kuo, Po-Cheng-OMD15,
OMD20
Kuramoto, MasaruOMC1
Kurimura, SunaoNTuD1, NTuD5
Kurokawa, TakahiroOMC3, OMC4
Kuszelewicz, RobertNME3
Kutz, J. Nathan-NThC3,
NWE22
Kuwahara, MasashiOME3
Kuwata-Gonokami,
Makoto-NMD7, NMD8,NWE2
Kuzyk, Mark-NFB3
Kwasniewski, AlbertNMA2
Köprülü, KahramanNMB6
L
L'huillier, Johannes ANThC5
Labruyère, AlexisNTuC4
Lai, Chien-Jen-NFA4
Larouche, StephaneNTuD2
Larue, Camille-NMD5
Laurell, Fredrik-NTuD4
Lawson, Christopher
Mark-NWE19
Le Garrec, B.-NThA2
Leblond, Hervé-NTuA5
Lee, Chao-Kuei-NFA4
Lee, Chao-Te-OMD15,
OMD20
Lee, Han-Baek-OMD7
Lee, Han-gyeol-NFB5

Lee, Hsin-Chen-OTuD7
Lee, Jae-Seong-OTuD3
Lee, Jae-Sung-OMD7
Lee, Jaejin-OMD13,
OMD14, OTuD11
Lee, Jinho-NFB2
Lee, Kwan-Yong-OME5
Lee, Sang-HyuckOTuD14
Lee, Sunwoo-NTuF7
Lee, Timothy-NTuD7
Leindecker, Nick-NME4
Leitenstorfer, AlfredNMC, NTuB4
Lemaître, AristideNTuE2
Lenhard, Andreas-NMB3
Leo, Giuseppe-NTuE2
Leonard, Francois-NMC2
Leproux, PhilippeNTuC4
Levi, Liad-NTuC3
Lewis, Dean-NMD5
Li, Zhiquan-NMD6
Li, Cheng-Pi-OTuD10
Li, Chia-Yeh-NMC2
Li, Jia-NWE2
Li, Jianming-OMD19
Li, Kun-Long-OTuD10
Li, Xiangping-OMD6,
OTuD18
Liang, Wei-NWD2
Liang, Wei-Hong-NFA4
Liao, Meisong-NWE9
Lim, Hwan HongNTuD5
Lim, Jongseok-NFB5
Lim, Seungho-OMD7,OTuC5Lim, Sung-YongOTuD14
Lin, Tzu-Chien-OTuD21
Linford, MatthewOMD10, OMD8
Lipson, Michal-NTuF7
Liska, Robert-NMD6
Liu, Jun-NWE24
Liu, Yanwei-NThA4
Londero, Pablo-NMD1
Lorraine, Peter W.OWA1
Loumakos, LoucasNTuB5
Lukin, Mikhail-NWC1
Lunt, Barry M-OMD10,
OMD8, OTuD5
Lunt, Bradley M-OTuD5Luo, Yi-OTuA4Lupinski, D.-NThA2

Luther-Davies, BarryNTuE1

M
Ma, Lijun-NWC4
Ma, Xiuquan-NTuE7
Macias-Romero, CarlosOMD1
Maeda, Joji-NWE13
Mai, Hung-ChuanOTuD20
Majumdar, Arka-NWC5
Makino, Kotaro-OTuB1
Maleki, Lute-NWD2
Manela, Ofer-NTuC3
Manipatruni, SasikanthNTuF7
Manquest, ChristopheNTuE2
Mansuripur, MasudOMA2, OTuB, OTuD7
Mao, Xuezhen-OTuC6
Marandi, Alireza-NME4
Marcet, Zsolt-NTuA6Marchev, Georgi-NMA2
Mase, Nobuyuki-NWE18
Masuda, Koji-NFB4
Matoba, Osamu-OME4
Matsko, Andrey-NWD2
Matsumoto, ShinnosukeNMA5
Matsushita, TomonoriNTuE3, NTuE4
McCloskey, P. J-OWA1
McCutcheon, Murray WNThB1
McLeod, Robert ROMA, OWA2McMorrow, Dale-NMD5
Medeiros, Renne-NFA1
Mennerat, GabrielNThA2
Menoni, Carmen-NThA4
Miao, Jianwei-NThA4
Miao, Xiangshui-OME1
Midorikawa, KatsumiNThA3
Mikami, HideharuOMC3, OTuC2, OWA3,OWB3Milster, Tom D-OTuD13,
OWB
Min, Byung-KwonOTuA2Min, Cheol-Ki-OTuA6
Min, Yoohong-NThB7
Minamide, HiroakiNMC1, NMC5, NTuF5,NWE23Minardi, StefanoNThB6, NThB7
Mio, Norikatsu-NTuD5
Misner, M. J-OWA1
Miyata, Kentaro-NWE10
Miyazaki, ToshimasaOTuA3, OTuC4
Mohite, Aditya D-NFB2
Momose, HidetomoOMD5Monroe, Morgan-NMD4
Montgomery, Steven RNTuF3
Morandotti, RobertoNMC4Morikasa, FukuyoshiOME3
Morimoto, MasashiNWE18
Moses, Jeffrey-NTuA7
Mourou, Gerard ANThA
Mourou, Gérard-NWB3
Mukasa, TomoharuOTuC1
Muramatsu, Ken-ichiNTuD1
Murnane, MargaretNThA1, NThA4
Muroi, Tetsuhiko-OMB1
Mühlbrandt, SaschaNTuA3

N
Nabata, Yuta-OTuA3,
OTuC4
Nahata, Ajay-NTuE5
Nakajima, Maki-NMA5
Nakamura, AtsushiOME
Nakamura, YusukeOMB5, OTuC3
Nakatani, Suguru-OMC5
Nakazaki, TatsuyaOTuC4Natarajan, A.-OWA1
Nawata, Kouji-NMC1,
NMC5, NTuF5
Nayak, Animesh-NTuF3
Nelson, Keith A-NFB,
NTuB6
Neshev, Dragomir NNMB7, NThB7
Neuhaus, LeonardNTuF4
Nevet, Amir-NMD3,
NWE6
Niederhauser, TravisOMD8

Nishizawa, NorihikoOMC2
Nitta, Kouichi-OME4
Noack, Frank-NMA2,
NWE10
Nolte, Stefan-NTuC2
Nomura, Wataru-OTuA1
Nonaka, Masaya-OME4
Notake, Takashi-NMC5,
NTuF5
OOgata, Tokoku-OTuA3,OTuC4
Oh, Wonseok-OMD7,
OTuC5Ohishi, Kiyoshi-OTuA3,
OTuC4
Ohishi, Yasutake-NWE9
Ohmae, Noriaki-NTuD5
Ohtsu, Motoichi-OTuA1
Okamoto, AtsushiOMB3, OMB4, OMD16,
OMD22, OTuD12
Okubo, Kohei-OTuD15
Ollmann, Zoltán-NMC7
Orenstein, Meir-NMD3,NWE6Osawa, Kentaro-OTuC2,OWA3, OWB3
Ostroverkhov, VictorOWA1
Ota, Junya-NTuE3,
NTuE4
Ou, Sin-Liang-OMD15,
OMD20
Ovsianikov, AleksandrNMD6
Ozaki, Tsuneyuki-NMC4

P
Paasch-Colberg, TimNTuA3
Padilha, Lazaro ANMD4, NWE12
Pan, Haifeng-NMB2
Pan, Liang-OMA3
Pan, Min-Hao-OTuD10
Pan, Ru-Pin-NFA4
Panyutin, VladimirNMA2
Papazoglou, DimitrisNFB3
Papp, Scott-NWD4
Park, DonghyukOTuD11
Park, Insik-OMA3

Park, Kyoung-Su-OMD7,
OTuA2, OTuA6, OTuC5,
OTuD14
Park, No-Cheol-OMD7,
OTuA2, OTuA6,
OTuC5, OTuD14, OTuE
Park, Young-Pil-OMD7,
OTuA2, OTuA6, OTuC5,
OTuD14
Pasiskevicius, ValdasNTuD4
Patera, G.-NFA1
Pattantyus-Abraham,
Andras G-NThB1
Pendry, John B-NThB2
Peng, Lung-Han-NFA4
Perederey, EugeneOTuE2
Pertsch, Thomas-NThB6,
NThB7, NWE17
Peterson, Rita-NME7
Petroff, Pierre-NWC5Petrov, Valentin-NMA2,
NWE10
Piccardi, ArmandoNWE4, NWE7
Pickett, J. E-OWA1
Pinel, O.-NFA1
Piskarskas, Algis-NWB4
Popmintchev, TenioNThA1
Pouget, Vincent-NMD5
Poutrina, EkaterinaNTuD2Powers, Peter-NME7,
NTuA4
Prasankumar, Rohit PNFB2Prem, Adrienne-NTuB5
Prent, Nicole-NWE5
Pálfalvi, László-NMC7
Q
Qiao, Haijun-NThB1
Qiu, Yi-NThC7
Quidant, Romain-NTuA2

R
Rakher, Matthew-NWC4
Randhawa, SukanyaNTuA2
Rechtsman, MikaelNTuC3
Reichert, JoachimNTuA3
Reid, Matt-NMC4
Reiger, Georg W-NThB1
Ren, Min-NMB2
Renger, Jan-NTuA2

Ricken, Raimund-NThB7
Rishi, Sharma-NFB2
Rivière, Rémi-NTuF4
Rivoire, Kelley-NWC5,
NWE11
ropagnol, Xavier-NMC4
Rose, Alec-NTuD2
Rosenberg, ArmandNTuF3
Rottwitt, KarstenNWE16
Ruda, Harry-NThB5

S
Sagnes, Isabelle-NME3
Saha, Kasturi-NMD1
Saiki, Toshiharu-OTuB2
Saito, Kimihiro-OWA,
OWB1
Sakai, Hiroshi-NWE23
Sandkuijl, Daaf-NWE14,NWE5Sarangan, AndrewNTuA4
Sasaki, Masahide-NTuB1
Sato, Atsushi-NMC1
Sato, Kunihiro-OMD16
Savanier, Marc-NTuE2
Savchenkov, AnatoliyNWD2
Saxena, Ankur-NThB5
Sazawa, Masaki-OTuC4
Scalora, Michael-NTuA4
Schelew, Ellen-NThB1
Schiek, Roland-NThB7,NWE15Schiffrin, AgustinNTuA3
Schlesinger, Tuviah E.OTuA4
Schliesser, Albert-NTuF4
Schlotter, William FNThA4
Schwartz, Tal-NTuC3
Schäfer, ChristophNThC5
Seaberg, Matthew DNThA4
Sebastien, LachezeNTuA2
Sederberg, ShawnNTuB3
Segev, MordechaiNTuC3, NTuF6
Seidel, David-NWD2
Seidel, Marco ThomasNWE3
Seidel, Marcus-NWE12

Sekiguchi, Toru-OMB2,OMD5Seletskiy, Denis-NMC2,
NME1
Setzpfandt, FrankNThB6, NThB7,
NWE17
Shao, Kai-NMD5
Sheik-Bahae, MansoorNMC2, NME1
Shen, Jung-Tsung-NMB4
Shen, Y. Ron-NWB1
Shevyrdyaeva, GalinaNMA2
Shi, Luping-OTuB4,OWC
Shi, Xiaolei-OMB,
OWA1
Shibukawa, AtsushiOMD16, OMD22,
OTuD12
Shibuya, TakayukiNMC3Shik, Alexander-NThB5
Shimada, Ken-ichiOMB5
Shimano, Takeshi-OWC
Shimidzu, Naoki-OMB1
Shimizu, HirokatsuNMD7
Shimizu, TakahiroNTuD5
Shimura, Tsutomu-OMB
Shin, Heedeuk-NWC2
Shirk, James S-NTuF3
Shlizerman, Eli-NWE22
Shoji, Ichiro-NMA5,
NTuD5
Shou, Xiang-NTuE5
Shwartz, Sharon-NWC3
Sipe, John-NMD2
Sivan, Yonatan-NThB2
Skarka, Vladimir-NTuA5
Skupin, Stefan-NTuA1
Slattery, Oliver-NWC4
Smith, David C-NTuC5
Smith, David R-NTuD2
Sohler, WolfgangNThB7
Sokolov, Alexei-NFA5
Soljacic, Marin-NThD2,
NTuA, NTuE
Solntsev, Alexander SNMB7, NThB7
Sorokin, Evgeni-NThC1
Sorokina, Irina T-NThC1
Srinivasan, KartikNWC4
Stampfl, Jürgen-NMD6
Stancil, Daniel D-OTuA4

Starling, David J-NMB1
Steffensen, HenrikNWE16
Stegeman, George-NFB3
Stevens, Martin-NWC4Stockman, Mark-NThD3,
NTuA
Su, Huimin-NTuA6
Sugita, Atsushi-NWE18
Suizu, Koji-NMC3
Sukhorukov, Andrey A.NMB7, NThB4, NThB7,NWE17Sun, Cheng-OMA3
Sun, Yue-NThB4
Susa, Masahiro-OME3
Suzuki, Michio-OME3
Suzuki, Takenobu-NWE9
Suzuki, Yuichi-OTuC1
Szameit, AlexanderNTuC2

T
Tabiryan, Nelson-NWE4
Taira, Takunori-NMA4,
NME2, NWA, NWE23
Tajima, K.-OTuB2
Takabayashi, MasanoriOMB3, OMB4, OMD16,
OMD22, OTuD12
Takano, YoshimichiOTuA3, OTuC4
Takashima, YuzuruOWA, OWA1, OWB4
Takayanagi, KonosukeNMA5
Takeda, Minoru-OMC5
Takeshita, NobuoOMD18
Talin, Albert-NMC2
Tamaki, YasuakiNWE18
Tamaru, Hiroharu-NMD8
Tan, Howe-Siang-NWE3
Tanabe, Takaya-OTuD15Tang, Xiao-NWC4
Tasaka, Shigeru-NWE18
Tatsu, Eriko-OMC4Taylor, Antoinette JNFB2
Tbd, Tbd-OTuE1
Tehranchi, AmirhosseinNTuD6
Teramoto, TakahiroNTuF2
Therien, Michael JNTuF3
Tian, Lei-NTuC7
Togan, Emre-NWC1

Toh, Yeow Teck-OMD19
Toimil-Molares, MariaNMC2Tokarz, Danielle-NWE14
Tokumaru, HarukiOTuA3, OTuC4
Tolstik, Nikolai-NThC1
Tominaga, Junji-OTuB1
Tominaga, Shin-OWA4
Tomita, Akihisa-OMB3,
OMD16
Tonello, AlessandroNTuC4
Tong, Fei-OME1
Treps, Nicolas-NFA1
Tsai, Din Ping-OMA4,
OTuA, OTuD22, OTuD7Tseng, Ming LunOTuD22
Tsia, Kevin K.-NThC7
Tsujioka, TsuyoshiOTuD16
Tsutsumi, KouichiOME3
Tuer, Adam Eric-NWE5
Tyazhev, Aleksey-NMA2
Tzortakis, Stelios-NFB3
Török, Peter-OMD1,OTuD6U
Ueda, Motoi-NTuD1
Ueno, Tokio-NTuD1
Ulin-Avila, Erick-OMA3
Urakawa, YoshiyukiOTuC1
Urness, Adam-OME,OME2

VVainio, Markku-NME5
Van Stryland, Eric WNMD4, NThC6, NWE12van Veggel, FrankNThB1
Venkataraman, VivekNMD1
Verhagen, Ewold-NTuF4
Verlot, Pierre-NTuF4
Villeval, Ph.-NThA2
Vlezko, V.-NThA2
Vodopyanov, KonstantinNME4, NWD3
Vuckovic, Jelena-NWC5,NWE11WWabnitz, Stefan-NTuC4
Wahlstrand, Jared-NMD2
Wakayama, YutaOMD22
Wang, Jianwei-NWE19
Wang, Kai-NFA5
Wang, L.-NThB3
Wang, Yuye-NMC5,
NTuF5
Watanabe, Koichi-OMC,
OMC3, OMC4, OTuC2,OWA3, OWB3
Watkins, V. H-OWA1
Webster, Scott-NMD4,
NThC6, NWE12
Wei, Junwei-NFB6
Weiner, Andrew-NFA2,
NThC
Weis, Stefan-NTuF4
Weng, Chun-Jen-OTuD7
Weng, You-ChenOTuD19
Wetzel, BenjaminNTuC6
White, Thomas P-NThB4
Wiederhecker, GustavoNTuF7
Williams, MatthewNWE22
Wilson, Brian-NWE5
Wise, Frank-NThC4,
NTuA7
Wong, Kam SingNTuA6
Wong, Kenneth K. Y.NThC7
Wu, E.-NMB2
Wu, Guang-NMB2
Wu, Hsiu-Wen-OMD21
Wu, Pin Chieh-OTuD7

X
Xiong, Yi-OMA3
Xu, Baoxi-OMD19
Xu, Jianbing-NThC7
Xu, Lisen-NTuF1
Y
Yacomotti, AlejandroNME3
Yagisawa, YasuakiOMD5
Yamada, TsuyoshiNTuD1
Yamagishi, YasuyukiOTuD2
Yamamoto, NaokatsuNTuB1

Yamanouchi, KaoruNTuB2
Yan, Suxia-NWE3
Yan, Xin-NWE9
Yang, Hyunseok-OTuA2,OTuA6, OTuD14
Yariv, Amnon-NMB,
NWA3
Yatsui, Takashi-OTuA1Ye, Jun-NFA3
Yeh, Chin-Yen-OMD15,
OMD20
Yen, Ta-Jen-OTuD7
Yokoyama, AtsushiNTuB2
Yokoyama, HiroyukiOMC1
Yoshimasa, KawataNWE18
Yoshioka, KosukeNMD7Young, Jeff-NThB1,
NThD
Z
Zaske, Sebastian-NMB3
Zayats, Anatoly-NTuA2
Zeng, Heping-NMB2
Zeng, Li-OMA3
Zhang, Baile-NTuC7
Zhang, Chi-NThC7
Zhang, Haipeng-NMD2
Zhang, Xiang-OMA3
Zhang, Yuanli-NWE19
Zhang, ZhengyangNWE3
Zhao, Qun-NWE19
Zheng, Yuxin-OTuE2
Zhi, Miaochan-NFA5
Zhou, Binbin-NTuA7
Zhou, Xiao qing-NTuF4
Zukauskas, AndriusNTuD4
Zukeran, KeisukeOTuD12