ADVANCE PROGRAM
14th International Conference on Optics-photonics
phDesign & Fabrication“ODF'24, Tucson”
July 10th-12th, 2024

ODF
Fa

The University of Arizona, Tucson, Arizona, U.S.A.
Organized by
Optics Design Group of The Optical Society of JapanIn Cooperation with (to be confirmed)
JSAP (The Japan Society of Applied Physics)・OSJ (The Optical Society of Japan)・International Commission
for Optics・EOS (European Optical Society)・Optica (formerly OSA)・SPIE (The international society for optics
and photonics)・TPS (Taiwan Photonics Society)・The Color Science Association of Japan・IEICE (The Instituteof Electronics, Information and Communication Engineers)・IEIJ (The Illuminating Engineering Institute ofJapan)・IIEEJ (The Institute of Image Electronics Engineers of Japan)・ITE (The Institute of Image Information
and Television Engineers)・JIEP (Japan Institute of Electronics Packaging)・JOEM (Japan Optomechatronics
Association)・JOMA (Japan Optical Measuring Instruments Manufacturer's Association)・JPS (The PhysicalSociety of Japan)・Japan Photonics Council・JSPE (The Japan Society for Precision Engineering）
・LSJ (The
Laser Society of Japan)・OV (Optics Valley)・OITDA (Optoelectronics Industry and Technology Development
Association)・Society for Information Display Japan Chapter・SPIJ (The Society of Photography and Imagingof Japan)・SPSJ (The Spectroscopical Society of Japan)

Post-Deadline Paper Submission: May 25th, 2024
Early-Bird Registration Deadline: June 9th, 2024
http://www.odf.jp/

TIME TABLEINTRODUCTION
The 14th International Conference on Optics-photonics Design & Fabrication “ODF'24, Tucson” will be heldon July 10th-12th, 2024. Optics-photonics design and fabrication will continue to play a significantly important rolein the 21st century achieving harmony between technology and the environment. ODF'24 is intended to provide aninternational forum for original paper presentations and discussions of optics-photonics design and fabricationrelated technological and scientific topics. These topics include theory, design, fabrication, testing, applications, andothers.
ODF'24 is aimed to promote international collaboration among the participants in this field including relatedcompanies’ exhibition.
Collaboration and Competition make progress.
“Join us at ODF'24, Tucson, U.S.A.!”

SCOPE OF THE CONFERENCE
ODF'24 is an international forum for the engineers and scientists in the field of Optics-photonics Design andFabrication to exchange their ideas and achievements with the goal of future mutual progress. The conference covers
the following major topical categories:
Special Session: “Streamlining sensing, computation, display, and integration as Optics forAutonomous Services and Interactive Systems (OASIS)”
Category 1. Optical Design / Simulation / Fabrication
Lens Design, Lens Design Theory, Illumination Simulation, Non-imaging Optics Design, Freeform Optics,
Simulation Software, Fabrication and Testing
Category 2. Optical Components / Devices
Laser, LED, OLED, Detector, Image sensor, DOE/HOE, Thin Film, Coating, Optical Waveguide, Optical Fiber,
Integrated Optoelectronic Device, Active Optical Component, Optical MEMS,
Photonic Crystal, Device Fabrication
Category 3. Optical Systems
Camera, Microscopy, Display, Projector, Optical Data Storage, Optical Lithography, Illumination Optics, 3D Image
Acquisition, 3D Display, VR/AR, LiDAR, Automotive Optics, Biomedical Optics, Optofluidics, Optical
Measurement, Optical Sensing, Spectroscopy
Category 4. New Technologies
AI Optics (Machine Learning, etc.), Computational Imaging and Sensing, Single pixel imaging, Digital Holography,
CGH, Nonlinear Optics, Ultrafast Optics, Metamaterial, Plasmonics, Near-Field Optics, Quantum Optics, Nano
Structures, Optical Cloaking, Other Future Technologies in Optical Design and Fabrication

TECHNICAL PROGRAM

July 10, 2024 (Wednesday)
9:00-9:10

Opening Session

Room: ILC120

Presider:H. Sakai (Hamamatsu Photonics / Japan)
Opening Remarks
Y. Takashima (The Univ. of Arizona / USA)M. Hasegawa (Canon / Japan)

9:10-10:30

Plenary Session

Room: ILC120

Presiders:Y. Kawata (Shizuoka Univ. / Japan)
D. Kim (The Univ. of Arizona / USA)
Plenary-01 (Invited)(9:10)One Ray, Two Rays, Green Ray, Blue Ray
R. N. Pfisterer (Photon Engineering / USA)
What is a ray? What can a single ray do? Can a group of geometrical rays model physical optics
phenomena? What can we learn when we trace billions of rays? We will discuss these and other related
questions during the plenary talk.
Plenary-02 (Invited)(9:50)
Digital Holography from Conventional to Unconventional
T. Nomura (Wakayama Univ. / Japan)
A briefly review of digital holography is given. As well as conventional digital holography, recent
progress of digital holography as a computational optical sensing and imaging is also introduced.

10:30-10:40
10:40-11:50

Short Break[W1A] C1. Optical Design/Simulation/Fabrication

Room: ILC120

Presiders:M. Mansuripur (The Univ. of Arizona / USA)
Y. Otani (Utsunomiya Univ. / Japan)
W1A-01 (Invited)(10:40) CNN-Based Analysis of White LED Packaging Design
T. Kashiwao (Kindai Univ. / Japan)
This study presents that convolutional neural networks (CNNs) can recognize packaging structure parts
to intensively affect brightness of white LEDs. Important parts are shown as feature maps of CNN models
trained with structure images.
W1A-02(11:05) Aberration Balancing in Lens Imaging Systems
J. Sasián (The Univ. of Arizona / USA)
Berration balancing in lens systems for sharp imaging is discussed. A variety of choices is presented fromthe point of view of minimizing the variance of the wave aberration function.
W1A-03(11:20) Ray Tracing in the Presence of Gradient Index Coatings
N. Hagen (Utsunomiya Univ. / Japan)
We consider the impact on optical design when a homogeneous optical element acquires a gradient index
surface and discuss examples of where this occurs.

W1A-04(11:35) Optical Alignment Using Bessel-Gauss Beams
Z. Chen (The Univ. of Arizona / USA), R. E. Parks (Optical Perspectives Group / USA), and D. Kim(The Univ. of Arizona / USA)The article demonstrates a new approach for achieving high-accuracy alignment with a Bessel-Gauss
Beam by utilizing its property of propagating as a paraxial ray.

11:50-13:35

Lunch

13:35-14:30[W4A] C4. New Technologies

Room: ILC120

Presider:D. Kang (The Univ. of Arizona / USA)
W4A-01 (Invited)(13:35) Dispersion-Engineered Metasurfaces: Fundamental and Applications
W. Chen (SNOChip / USA)In this presentation, I will detail the distinctive features of metasurface optics in comparison withrefractive and diffractive optics and introduce dispersion-engineered metasurfaces for imaging andsensing applications.
W4A-02 (Withdrawn)
W4A-03(14:00) Angular Dependent Metasurfaces for Aberration Correction
Z. Wang (The Univ. of Arizona / USA), Y. Shao (Stanford Univ. / USA), Y. Kim (The Univ. of Arizona /USA), R. Lupoiu, J. A. Fan (Stanford Univ. / USA), and T. D. Milster (The Univ. of Arizona / USA)
Metasurface structures optimized by inverse design algorithms enable versatility of optical response forvarious applications. This report focuses on aberration correction abilities of angularly dependent
metasurfaces.
W4A-04(14:15) Sub-Wavelength Resolution Micro Glass Optics Additive Manufacturing
Z. Hong, P. Ye, D. A. Roy, and R. Liang (The Univ. of Arizona / USA)We will report our research trials for the non-sintering, low shrinkage, and user-friendly two-photon
polymerization printing technology for high-resolution complex glass optical system development. We
will introduce our previous and recent publications for more micro-glass optics potential.

14:30-14:40

Short Break

14:40-15:50[W4B] C4. New Technologies

Room: ILC120

Presider:N. Yoneda (Kobe Univ. / Japan)
W4B-01 (Invited)(14:40) Modeling of Optical Fabrication Chains During Optics Design
O. Faehnle (OST Univ. of Applied Sciences / Switzerland)
Results of computer modeling and simulation of the optimal fabrication chain (at minimum cost and risk)
for given optical systems design is presented, enabling cost impact analysis during the optical design stage.
W4B-02(15:05) Scene-Aware Illumination Assisted Learning-Based Hyperspectral Recovery from Dual RGB
ImagesY. Sun and R. Liang (The Univ. of Arizona / USA)We demonstrated a learning-based hyperspectral imaging modality from a pair of RGB images underscene-aware illumination optimization mechanism, in which various scenes yield different optimal
illuminations to achieve higher recovery accuracy and more balanced error.

W4B-03(15:20) Deep Neural Network-Based Classification of Spectrally Encoded Confocal Microscopy Images ofExcised Breast Tissues Using a Small Training Dataset
A. Nessaee (The Univ. of Arizona / USA), K. Kose (Memorial Sloan Kettering Cancer Center / USA), E.
Brachtel (Thomas Jefferson Univ. / USA), and D. Kang (The Univ. of Arizona / USA)Spectrally Encoded Confocal Microscopy (SECM) previously demonstrated high accuracy for diagnosing
malignancy in excised breast tissues when analyzed manually by pathologists. We applied transfer
learning to evaluate a small training dataset’s utility for classifier training.
W4B-04(15:35) Improvement of Image Quality for Infrared Imaging Sensor Using Deep Learning Based on
Optical Simulation
T. Furuta and M. Kuwata (Mitsubishi Electric / Japan)
We propose the new method to quickly generate large amounts of training data sets for AI training using
the optical simulation and discuss the results of applying the method to the infrared sensor.

15:50-16:20
16:20-17:30

Coffee Break[W3A] C3. Optical Systems

Room: ILC120

Presiders:T. Milster (The Univ. of Arizona / USA)
M. Takabayashi (Kyushu Inst. of Tech. / Japan)
W3A-01 (Invited)(16:20) Building a Versatile Dynamic Imaging System for Detonators and Sub-Components
A. M. Manuel, S. W. Wagnon, and W. L. Shaw (Lawrence Livermore National Laboratory / USA)HELIOS (High Explosive Laser Imaging Optical System) is LLNL’s capability for visualizing exploding
foil initiators and detonators in flight. The imaging system from the laser backlight through to the highspeed framing cameras will be described.
W3A-02(16:45) Development of a Sun-Tracking Linear Stokes Imaging Polarimeter
C. M. DeLeon and M. K. Kupinski (The Univ. of Arizona / USA)This work highlights the development of a ground-based sun-tracking Stokes imaging polarimeter(SUNTRAP) operating in the ultraviolet (355 nm) and visible (630 nm, 525 nm, 470 nm; RGB)
wavelengths. SUNTRAP will enable novel characterizations of skylight polarization.
W3A-03(17:00) A High-Speed Variable Focus Camera System Using Ultrafast Switching Mirrors
S. Hu, K. Shimasaki, and I. Ishii (Hiroshima Univ. / Japan)
This study introduces a high-speed variable focus optical system with ultrafast switching mirrors that
achieves millisecond-level response times and enables simultaneous multifocal imaging in standard
camera-lens systems, overcoming environmental and lens parameter limitations.
W3A-04(17:15) Limited Area Sensing by Projected Volume Light Curtain
T. Makita and H. Kawano (Mitsubishi Electric / Japan)
Our new sensing device takes images only when people or objects exist in certain areas with depth.
Synchronously controlling laser illumination and a rolling shutter camera enables dynamic changes ofsensing areas.

17:30-17:40

Short Break17:40-18:50[W3B] C3. Optical Systems

Room: ILC120

Presiders:N. Chen (The Univ. of Arizona / USA)S. Hu (Hiroshima Univ. / Japan)
W3B-01 (Invited)(17:40) Lattice Lightsheet Microscopy with Standard Cover Glass: A Challenge for Optical Design
M. Hanft, L. C. Wittig, and U. Boehm (Carl Zeiss / Germany)
Lattice Lightsheet Microscopy is a gentle method of fluorescence microscopy. The talk outlines importantdevelopment steps. In addition, challenges and solutions resulting from standard sample preparation will
be presented from the perspective of optical design.
W3B-02(18:05) Accurate Eye-Tracking from Deflectometric Information Using Deep Learning
J. Choi (The Univ. of Arizona / USA), J. Wang (Northwestern Univ. / USA), T. Wang (ETH Zurich /Switzerland), and F. Willomitzer (The Univ. of Arizona / USA)We introduce an accurate eye-tracking method that exploits deflectometric information and uses deeplearning to reconstruct the gaze direction. We demonstrate real world experiments with evaluated gazeerrors below 1 degree.
W3B-03(18:20) Development of a Cross-Polarized Portable In Vivo Confocal Ophthalmoscope for Corneal
Imaging
K. Marcelino, M. Sugimura, R. Romero, J. Zhao, K. Konecny, K. Kim (The Univ. of Arizona / USA), M.
Rajadhyaksha (Memorial Sloan Kettering Cancer Center / USA), J. Chidambaram (The Univ. ofManchester / UK), and D. Kang (The Univ. of Arizona / USA)The established corneal ulcer diagnostic technique involves invasive corneal scrapes and multi-day waits
for tissue pathogen culture development. We developed a cross-polarized portable in vivo confocal
ophthalmoscope for high-speed, non-contact cornea imaging.
W3B-04(18:35) Digitally-Directed Beams for Microscale Inspection
H. Ohno (Toshiba / Japan)
Digitally-directed beams, capable of instantaneously controlling their direction at every point within afield of view, are proposed for the inspection of microscale defects in manufacturing processes.

18:50-19:00

Group PhotoJuly 11, 2024 (Thursday)
9:00-10:10[Th2A] C2. Optical Components / Devices

Room: ILC120

Presiders:
M. Yamagata (Panasonic Automotive Systems / Japan)
H. Choi (The Univ. of Arizona / USA)
Th2A-01 (Invited)(9:00)
Liquid Crystal Polarization Holograms for Virtual Reality Displays
Z. Li, X. Wang, H. Cheng, L. Lu, and B. Silverstein (Meta Reality Lab / USA)
Liquid crystal polarization holograms (LCPH) are polarization-sensitive holograms that can be used in
VR applications. They offer benefits such as accommodation, foveated display, and pancake cavity
formation with chromatic aberration correction due to their polarization selectivity.
Th2A-02(9:25)
Optical Architecture of Single-Chip 2-Dimensional Image Steering Towards Compact Smart AR
Display
Y. Pei, T. Zhang, X. Deng, G. M. Nero, J. Chan, J. C. Chang, T. L. Lee, P. Liu, C. Luo, and Y. Takashima(The Univ. of Arizona / USA)A diffractive and reflective hybrid image steering by MEMS spatial light modulator enables a new lidar
optical architecture that increases effective pixel count of SLM in a time multiplexed manner.
Th2A-03(9:40)
Ring-Shaped Lithography for Structuring Spherical Surfaces
D. Stumpf, X. Uwurukundo, and R. Brunner (Univ. of Applied Sciences Jena / Germany)
A custom lithography tool employing axicons to produce a ring-shaped light distribution is utilized to
expose gray level structures in photoresist on spherical surfaces.
Th2A-04(9:55)
Unprecedentedly Accurate Measurements of Electro-Optic Coefficients Using the Teng and Man
Method to Eliminate Wavelength-Dependent Errors
Y. Enami (Nagasaki Univ. / Japan)
We measure highly accurate electro-optic (EO) coefficient for EO polymers using a transmission
method, overcoming the limitations of the Teng and Man reflection ellipsometric method and enhancing
reliability and accuracy in EO research.

10:10-10:20

Short Break

10:20-11:30[Th2B] C2. Optical Components / Devices

Room: ILC120

Presider:K. Konno (Konica Minolta / Japan)
Th2B-01 (Invited)(10:20) Dual-Comb Spectroscopy from the IR to the Deep Ultraviolet for Characterization of Laser
PlasmasR. J. Jones (The Univ. of Arizona / USA)We utilize time-resolved dual-comb spectroscopy from the IR to the deep ultraviolet to measure evolving
ionic, atomic, and molecular species within laser plasmas. Key parameters including atomic andmolecular temperatures and electron densities are characterized.
Th2B-02(10:45) Model for Optical Properties of NbTiN Thin Films Considering Quantum Corrections to
Conductivity
S. Kern (Comenius Univ. / Slovakia), P. Neilinger (Comenius Univ. / Slovakia, Slovak Academy of
Sciences / Slovakia), M. Baranek (Comenius Univ. / Slovakia), M. Kocsis, P. Makk, G. Fulop (Budapest
Univ. of Technology and Economics / Hungary), and M. Grajcar (Comenius Univ. / Slovakia, Slovak
Academy of Sciences / Slovakia)
The optical properties of disordered ultra-thin NbTiN films are studied by means of spectroscopic
ellipsometry. Drude-Lorentz model modified by quantum corrections describes the obtained opticalconductivities well, including double plasmon behaviour and their transport properties.
Th2B-03(11:00) Numerical Evaluation of Polarization-Structuring Computer Generated Holography with
Radially Polarized LightY. Ogura and J. Tanida (Osaka Univ. / Japan)
We present computer generated holography with radially polarized light for generating polarization
structured optical patterns. Numerical evaluation results show that the method is effective for generationand miniaturization of polarization-structured spots including z-polarization.
Th2B-04(11:15) Angular Spectrum Approach to Optical Characterization of Thin Film Materials Using
Transmission Spectroscopy
J. M. Bass (The Univ. of Arizona / USA), M. Ballester (Northwestern Univ. / USA), S. M. Fernandez(CIEMAT / Spain), A. K. Katsaggelos (Northwestern Univ. / USA), E. Marquez (Univ. of Cadiz / Spain),and F. Willomitzer (The Univ. of Arizona / USA)
Thin film transmission spectroscopy systems are useful for characterizing semiconductors, but often
rely on rigid analytical models. We introduce a more versatile framework using angular spectrum
diffraction, which allows for accurate characterization of inhomogenous materials.

11:30-13:00

Lunch

13:00-16:00

Poster Session

Room: ILC141

ThP-01
Acceptance Angle Enlargement for a Side-Absorption Concentrated Photovoltaic System Using a
Lens Array and a Light-Guide
A. Wei, Y. Hsu (National Central Univ. / Taiwan), and J. Sze (National Applied Research Laboratories /Taiwan)A concentrator, comprising a lens array and a light-guide with V-grooves, is designed to enlarge theacceptance angle of a concentrated photovoltaic system. The optical performance and the fabrication
tolerances of the design are analyzed.
ThP-02
Exploring Ghost Ray Tracing in a Massively Parallel Fast Ray Tracing within a Cloud Computing
Environment
H. Ono (Nikon / Japan), S. Matsumura (EQN / Japan), and Z. Ushiyama (Tyco Optics / Japan)
Our cloud-based program facilitates rapid and comprehensive ghost optical path search in camera lensdesign, enabling effective countermeasures against ghosts prior to prototyping.
ThP-03 (Withdrawn)
ThP-04
Design of Optical Scanning System to Improve Vertical Sidewall Quality in Laser Beam
Processing
G. Oh, H. Choi (Gyeongsang National Univ. / Korea), J. Ha, C. Kim (Korea Institute of Industrial
Technology / Korea), Y. Kim, and K. Song (SNU Precision / Korea)
When processing microstructures using a laser beam processing system, vertical sidewall quality may
deteriorate. In this paper, we design a novel optical scanning system for overcome these limitations.
ThP-05
Automated Collimation at the Vatican Advanced Technology Telescope (VATT)
S. A. Blomquist, H. Choi (The Univ. of Arizona / USA), P. Gabor (Vatican Observatory / USA), R.
Crawford (Rincon Ranch Observatory / USA), and D. Kim (The Univ. of Arizona / USA)
The Vatican Advanced Technology Telescope (VATT) is a Gregorian telescope located in southeastern
Arizona. This paper presents an overview and results from various algorithms to properly collimate the
VATT and retain alignment on a night-to-night basis.
ThP-06
2.4 m × 3.3 m Twisting Heliostat Metrology for High Concentration Solar Fields
Y. Huang, R. Angel, H. Kang, H. Choi, M. Rademacher, H. Tailor, R. Su, and D. Kim (The Univ. of
Arizona / USA)

This paper describes a novel metrology system for twisting heliostats targeting high concentration. The
deflectometry method using a perforated screens achieved an accuracy of 0.1 mrad RMS slope error at
25 mm spatial resolution.
ThP-07
Correction of Fabrication Errors of Telescope Primary Lens by a Phase Plate
Z. Wang, N. Brar, Y. Wu, Y. Yun, E. Durazo, and T. D. Milster (The Univ. of Arizona / USA)This presentation demonstrates the potential and methods of compensating fabrication errors of a
MODE telescope. Phase error of primary lens is reduced by placing a custom phase plate in thesecondary optics.
ThP-08Design and Analysis of Dark Field Illumination Optics for VUV Objective Simulator
Y. Kim, B. Jeong, H. Choi, and D. Kim (The Univ. of Arizona / USA)
Due to high throughput and sensitivity of VUV based semiconductor defects inspection, TSOM
technology became popular method to analyse the various defects. VUV objective based dark-field
illumination optics is the core path of TSOM technology.
ThP-09
Exploring the Polarimetric Potential of the Giant Magellan Telescope
H. Tailor, R. M. Anche, G. G. Williams (The Univ. of Arizona / USA), J. J. Piotrowski (Observatories of
the Carnegie Institute of Science / USA), and D. Kim (The Univ. of Arizona / USA)
Enhanced astronomical polarimetry with polarimetric optics in Giant Magellan Telescope’s
Commissioning Camera explores celestial asymmetries and magnetic fields. The GMT-Pol modification
enables observing fainter targets, expanding scientific possibilities beyond current telescopes.
ThP-10Fabrication, Testing, and Correction of Molded MODE Lens Telescope
N. Brar, Y. Kim, Z. Wang, Y. Zhang (The Univ. of Arizona / USA), A. Yi, Y. Cai (The Ohio State Univ. /USA), and T. D. Milster (The Univ. of Arizona / USA)We have fabricated a multi-order diffractive objective lens for use in a telescope. Testing showed errors
in fabrication, requiring correction by a grayscale CGH phase plate.
ThP-11Requirements-Driven and Model-Based Trade Study of an Off-Axis Three Mirror System
Constellation with SysML
M. Kirshner, E. Pearce, D. Gold, D. Kim, and E. Schafer (The Univ. of Arizona / USA)This work advances automation of telescope trade studies and requirements verification by using
Model-Based Systems Engineering and simulation methodologies to constrain the architectural design
space for an off-axis three mirror system space domain awareness constellation.
ThP-12Tolerance Analysis of Single Aperture Large Telescope for Universe Studies (SALTUS) Space
MissionO. Wu, H. Choi, M. Esparza, Y. Kim, Y. Takashima, D. Kim, and C. Walker (The Univ. of Arizona / USA)This paper studies the tolerance of SALTUS that utilizes a 14-meter class inflatable primary. The
adoption of an inflatable aperture leads to unusual optomechanical consideration. We evaluate tolerance
and review the impact on the performance.
ThP-13Off-Axis Three Mirror System with Integrated Primary and Tertiary Mirror
D. Gold, E. Pearce, E. Schafer, M. Kirshner, and D. Kim (The Univ. of Arizona / USA)This paper introduces the design of an off-axis three-mirror system with integrated primary and tertiary
mirrors. The compact form-factor reduces optical fabrication, testing, and alignment complexities, while
simplifying the opto-mechanical structure.
ThP-14
Investigation of Graphene-MoS2 Composite or Hybrid Effect on Photovoltaic Performance of
DSSCs
M. Hosseinnezhad and M Ghahari (Institute for Color Science and Technology / Iran)Herein, DSSCs were fabricated using MoS2/graphene composite or hybrid, and to compare the resultsof DSSCs based on platinum. Under the same conditions, the DSSCs with MoS2/graphene composite
illustrated better efficiency than MoS2/graphene hybrid.
ThP-15Laser Polishing for Removal of Diamond Turning Marks on Polymethyl Methacrylate
N. Khatri (CSIR-Central Scientific Instruments Organisation / India, Academy of Scientific andInnovative Research / India, The Univ. of Arizona / USA), K. Manjunath (CSIR-Central Scientific
Instruments Organisation / India, Academy of Scientific and Innovative Research / India), S. Singh(Thapar Institute of Engineering and Technology / India), W. Kang, and R. Liang (The Univ. of Arizona /USA)
Diamond Turning is quite popular for fabrication of nanometric surface finish, but dynamic instabilities
results in residual turning marks. In this work, CO2 laser polishing is proposed to remove residual tool
marks in PMMA for optical components.
ThP-16
Dispersive Properties of Radial Gradient Index Materials
A. Li and N. Carlie (Edmund Optics / USA)
Dispersive properties of radial gradient index (GRIN) materials are derived. GRIN Abbe numbers andpartial dispersions are discussed. A method to evaluate and choose materials based on a glass map is
proposed.
ThP-17
Photovoltaic-Thermal Side-Absorption Concentrated Module with Micro-Structures as
Wavelength-Division Component for a Hybrid-Collecting Reflection Solar System
J. R. Sze (National Applied Research Laboratories / Taiwan) and A. C. Wei (National Central Univ. /Taiwan)A photovoltaic-thermal side-absorption concentrated module (PT-SACM) for photovoltaic-thermal
hybrid applications is carried out. In order to meet the requirements of wavelength division and thinnervolume, the proposed module consists of micro-structures and a planar light-guide.
ThP-18Design, Fabrication, and Testing of a Grayscale Computer-Generated Hologram
Y. Wu and T. D. Milster (The Univ. of Arizona / USA)This paper presents the design and fabrication of a laser beam array generator holographic diffractive
element using grayscale photolithography and etched into fused silica for a high-power application.
ThP-19Polymer Assisted Laser Etching of Dielectric Materials Based Optical Diffusers
S. Devinder, S. Pandey, S. Joseph, and J. Joseph (Indian Institute of Technology Delhi / India)
In optical applications, diffusers play a crucial role, typically created by grinding transparent materials.
We innovate by substituting grinding with laser engraving, a faster and automated method. Overcoming
challenges with transparent substrates, we introduce a polymer coating to induce local heating,facilitating precise material etching.
ThP-20
Rotating Diffuser for Speckle Modulation in Spectrally-Encoded Line Illumination Reflectance
Confocal Microscopy
M. Sugimura, K. Marcelino, R. Romero, J. Zhao, Y. Kim, A. Nessaee, K. Kim, D. Stratton, C. CurielLewandrowski (The Univ. of Arizona / USA), J. Garfinkel, and G. Rubinstein (ArgosMD / USA)The use of superluminescent diode (sLED) in Portable Confocal Microscopy (PCM) improved thesignal-to-noise ratio and imaging speed but introduced speckle noise. The adoption of a rotating diffuser
reduced the speckle without compromising resolution.
ThP-21High-Resolution, Full-Freedom Spectral Tunable Light Source for Skin Discrimination
Y. Sun and R. Liang (The Univ. of Arizona / USA)
We proposed and built a high-resolution, full-freedom spectral tunable light source (Spec-TLS) toenhance color contrast of two distinct objects using optimal illumination. Simulation and experimental

results have demonstrated the performance of our Spec-TLS and improved color contrast enhancementson skin and other objects.
ThP-22
Optical Fabrication Properties of Poly(S2-TIC-Cl2): Sulfur Copolymers
B. Jeong, K. Kim (The Univ. of Arizona / USA), Y. Kim, and M. Bog (Y&DK / Korea)
This paper proposed the brittle ductile mode fabrication properties of the sulfur copolymer material. We
optimized machining variables to achieve the surface roughness below 6nm after the diamond turning
process.
ThP-23
Simulation Development of Autonomous Polishing Robots for Large Optics
C. C. Scoggins, V. S. Negi, K. Derby, M. A. Duque, H. Kang, and H. Choi (The Univ. of Arizona / USA)We are developing autonomous polishing robots designed to work in tandem to vastly reduce polishingtime of large optics. We develop simulations to analyze the movement and polishing capability of ourdesign.
ThP-24Germanium-Germanium Oxide Narrow-Band-Pass Filter for SWIR Applications
S. Chen, L. Wu, and C. Wu (National Central Univ. / Taiwan)
Leveraging the attributes of germanium/germanium oxide thin films, HiPIMS apparatus was employed
to generate high/low refractive index thin films, while concurrently minimizing coating time via theapplication of low-thickness NBPF filter for SWIR Applications.
ThP-25
Optical Metrology of Thin Films from Interference of Interface Waves
K. Qin and A. Gao (Advanced Micro Optics Instrument / China)
A new metrology of thin films with a few microns’ side length is proposed. The optical and geometricalparameters of thin films with sub-wavelength thickness can be extracted from the interference of surface
plasmon waves.
ThP-26A DMD-Based MWIR Single-Pixel Microscope Camera
T. Chung and H. Lin (National Central Univ. / Taiwan)
By reducing the cover glass thickness of a commercially available DMD, a MWIR single pixel
microscope camera is realized. The MWIR image and corresponding temperature of a bare LED chip
can then be obtained.
ThP-27
In Vivo Investigation of Mechanical Stress in Mice Skin via a Polarimetry Imaging System
S. Chen and C. Line (National Central Univ. / Taiwan)
Recent research shows that elongation of mice skin with appropriate tensile stress can stimulate hairfollicle regeneration. A polarimetry imaging system was deployed to in vivo measure the stress requiredfor hair regeneration.
ThP-28Development of Optimized Illumination for Near-Infrared Fourier Ptychography Microscopy
G. Oh (Gyeongsang National Univ. / Korea)
For near-infrared Fourier Ptychography Microscopy, a camera capable of detecting near-infrared rays isessential. Illumination overlapping is improved to bypass pixel aliasing occurring in a large pixel size ofa camera that detects near-infrared rays.
ThP-29Inverted Signal Frequency Detection Method for Self-Coupling Laser Sensor Arrays byModulation Frequency Difference
D. Sato and N. Tsuda (Aichi Institute of Technology / Japan)
In this study, we present a theoretical self-coupling laser sensor array system for inverted signal
frequency detection, as well as the distance and velocity measurement results obtained by using thissystem.

ThP-30
Visualization of Sound Pressure Distribution in Water Using Self-Coupling Laser Hydrophone
K. Fukuyama, N. Tsuda, and D. Mizushima (Aichi Institute of Technology / Japan)
We previously fabricated a new type of hydrophone, a laser hydrophone, using the self-coupling effectof a semiconductor laser. In this study, we present an underwater sound pressure distribution measured
using this laser hydrophone.
ThP-31
Automated Analysis of Scattering-Based Light Sheet Microscopy Images of Anal Tissues
Y. Kim, J. Zhao, A. Nessaee (The Univ. of Arizona / USA), B. Liang, M. Khan, E. Yang (Stanford Univ. /USA), and D. Kang (The Univ. of Arizona / USA)
Scattering-based light sheet microscopy (sLSM) has the potential to visualize cellular morphologicchanges associated with anal squamous intraepithelial lesions. We developed an algorithm that
automatically analyzes sLSM images based on image intensity.
ThP-32
Deconvolution of In Vivo Cross-Polarized Microscopy Images of Individual Melanocytic Cells
R. Romero, Y. Kim, J. Zhao, D. Stratton, M. Sugimura, K. Marcelino, C. Curiel-Lewandrowski, and D.
Kang (The Univ. of Arizona / USA)
Cross-polarized microscopy is capable of imaging individual pigmented cells in vivo. We developed amodified deconvolution method to improve image sharpness for melanocytic cells with minimal
artifacts.
ThP-33Differential Interference Contrast Microscope Using a Polarization Camera
Y. Otani, W. Takano, J. Onaka, N. Hagen, and M. Matsuda (Utsunomiya Univ. / Japan)
A quantitative differential interference contrast microscope is proposed for observing phase andamplitude of a transparent sample without any staining. Phase gradients of shearing area can beanalyzed by a polarization camera. It is succeeded to analyze video quantitative phase and to reconstruct
3D images from multiple images.
ThP-34
Mueller Matrix Polarimetry in the Near-Field Region
S. Ohkubo (National Institute of Technology Numazu College / Japan)
This paper describes the development of a near-field Mueller matrix polarization microscope capable ofmeasuring various polarization properties at once, and obtaining Mueller matrix image in the nanoregion using that equipment.
ThP-35 (Withdrawn)
ThP-36
Stain-Free Biomedical Imaging Using Ultraviolet Fourier Ptychography Microscopy
R. You and R. Liang (The Univ. of Arizona / USA)We demonstrate a novel implementation of Fourier ptychography microscopy (FPM) that leverages
ultraviolet (UV) light, UV-FPM, to perform high-throughput, stain-free biomedical imaging by
successfully capturing high-throughput with strong contrast cervical cells and oral cells images.
ThP-37A White-Light Spectrum Generator for Multi-Channel Illuminator by Using Artificial Neural
Network
Y. Chen, K. Huang, H. Chung, and Y. Cheng (National Central Univ. / Taiwan)
This study utilizes genetic algorithms to generate a white-light spectrum database with different color
temperatures for a 14-channel LED illuminator. Subsequently, a neural network is trained to establish awhite-light spectrum generator.
ThP-38
Optical Design and Granularity in Heterogeneous Array Cameras
Z. Dong (The Univ. of Arizona / USA)This paper presents an array camera system integrating multiple lenses and sensors for 288-megapixel
resolution, enhancing image quality and versatility in applications ranging from sports analytics tosurveillance, powered by advanced computational algorithms and microcomputers.

ThP-39
Numerical Simulations on Image Recognition by Self-Referential Holographic Deep Neural
Network with Electronic Output Layer
R. Tomioka, T. Takatsu, and M. Takabayashi (Kyushu Institute of Technology / Japan)
We numerically demonstrate a 4-class image recognition task using a self-referential holographic deepneural network (SR-HDNN) and verify the effectiveness of the use of electronic processing as the final
layer.
ThP-40
Numerical Analysis on Contributions of Individual Layers in Self-Referential Holographic Deep
Neural Network
T. Takatsu, R. Tomioka, and M. Takabayashi (Kyushu Institute of Technology / Japan)
We have investigated the contribution of the training pattern at each layer to the overall result of animage recognition task in a self-referential holographic deep neural network (SR-HDNN).
ThP-41Modeling Non-Local Aberration Correction of Spaceplates
T. D. Milster (The Univ. of Arizona / USA), Y. Shao (Stanford Univ. / USA), Z. Wang, Y. Kim (The Univ.
of Arizona / USA), R. Lupoiu, and J. Fan (Stanford Univ. / USA)The two-dimensional spot characteristics of an optical system containing a spaceplate that deviates rays
as a non-local function of angle of incidence onto the plate are discussed.
ThP-42
Spaceborne Optical Frequency Comb Based on a Figure-8 Mode-Locked Fiber Laser for HighlyStable Microwave Generation System
Y. Takeuchi, T. Yamada, Y. Tanaka, N. Takagi, T. Kurihara, and M. Musha (The Univ. of ElectroCommunications / Japan)
We present the performance of our spaceborne optical frequency comb based on an all-polarizationmaintaining figure-8 mode-locked fiber laser, repetition frequency of which is phase-locked to themicrowave frequency reference for over 48 hours.
ThPDP-43
High-Response KTN Crystal Devices at Phase Transition Temperature for Longitudinal andHolographic Electro-Optic Modulation
H. Sakai, T. Watanabe, and H. Tanaka (Hamamatsu Photonics / Japan)
This study presents switching electro-optic devices based on the Kerr effect in KTN crystals, which
exhibit a relative dielectric constant exceeding 10,000. The frequency dependence of the measured
capacitance demonstrates stability up to the cutoff frequency.
ThPDP-44
Silicon Backplane Development Utilizing Frame Buffer Pixel Circuit for PolarizationIndependent Liquid Crystal on Silicon Phase Modulator
Q. Zhang, I. Zachmann, L. Ji, and C. Mao (The Ohio State Univ./ USA)We developed a polarization-independent liquid crystal on silicon (PI-LCoS) phase modulator with athin-film quarter-wave plate (QWP) and a novel pixel circuit-based silicon backplane, enhancing
performance in wavelength selective switches (WSS), adaptive optics, and holographic applications.

16:00-16:30

Coffee Break16:30-17:30[Th1B] C1. Optical Design/Simulation/Fabrication

Room: ILC120

Presiders:T. Kashiwao (Kindai Univ. / Japan)
N. Hagen (Utsunomiya Univ. / Japan)
Th1B-01(16:30) Wide-Range and Accurate Temperature Sensing with Micro-Lens-Array
A. Sasaki (Keio Univ. / Japan, ANAX Optics / Japan), O. Kirino (ANAX Optics / Japan), A. Beaucamp(Keio Univ. / Japan, ANAX Optics / Japan), and K. Tatsumi (Kyoto Univ. / Japan)
A multi-focal depth (10-80 mm) micro-lens-array is designed for use as objective lens in a remotetemperature measurement system. System performance is evaluated by ray tracing simulation andexperiment, comparing favourably against an aspheric system.
Th1B-02(16:45) Multifocal Array Camera System Design
S. Zhu, Z. Dong, G. Hageman, J. Sasian, and D. Brady (The Univ. of Arizona / USA)This paper presents a multifocal array camera system design with fixed-focus lenses that eliminates theneed for active focus. A shallow working distance and tight manufacturing tolerances enable compact
narrow field f/2.8 microcameras.
Th1B-03(17:00) Straylight Analysis of a MODE Lens Telescope
Y. Kim, Z. Wang, N. Brar, and T. D. Milster (The Univ. of Arizona / USA)The straylight analysis of multi-order diffraction engineered (MODE) lens telescope is an essential stepin the evaluation of the telescope. Straylight of MODE telescope can be minimized to prevent unwanted
photons from reaching the detectors.
Th1B-04(17:15) Development of a Low-Cost Production Technology for High-Performance Space Telescopes
O. Kirino (KIYOHARA Optics / Japan, Crystal Optics / Japan), H. Shinonaga, K. Kiyohara(KIYOHARA Optics / Japan), and H. Nakagawa (Crystal Optics / Japan)
As a low-cost production technology for high-performance space telescopes, we propose a new
production method to minimize the transmitted wavefront error, which represents the telescope's
performance, by corrective polishing only of the secondary mirror.

17:30-18:00
18:00-Break
Banquet(at Bear Down Gym)

July 12, 2024 (Friday)
9:00-10:25[F1C] C1. Optical Design/Simulation/Fabrication

Room: ILC120

Presiders:T. Yamanashi (Theta Optical / USA)
C. Liang (National Central Univ. / Taiwan)
F1C-01 (Invited)(9:00)Is Less More? Compact Imaging Systems with Freeform Optics and Metasurfaces
D. K. Nikolov, J. P. Rolland, and A. Bauer (Univ. of Rochester / USA)“Less is more” is an appealing approach for the design of compact imaging systems. We explore thefundamental limitations of this philosophy through the lens of recent advancements in freeform optics,
metasurfaces, and metaforms.
F1C-02(9:25)Developing a Reconstruction Algorithm Using a Pseudo-Inverse Operator for 3D Birefringencefrom Tomographic Polarimetry
M. Seigo (The Univ. of Arizona / USA, Nalux / Japan), H. Fukui, S. Kawano (Nalux / Japan), and M.
Kpinski (The Univ. of Arizona / USA)A method using a pseudo-inverse operator is proposed for reconstructing original 3D ellipsoids frommultiple cross-sectional 2D ellipsoids. This mathematical framework is developed to design atomographic reconstruction for 3D birefringence distribution of injection-molded lenses.
F1C-03(9:40)
All-reflective, Unobscured, Freeform Microscope Fabrication and Testing
W. Kang, T. Peterson, H. Ma, D. Wang, and R. Liang (The Univ. of Arizona / USA)An all-reflective, unobscured, freeform mirror microscope has been designed and fabricated. It overcomes
the dispersion suffered by microscopes with refractive lenses, eliminates the need for active alignment,
and supports wide-spectrum biological imaging from ultraviolet to infrared.
F1C-04(9:55)
Design of a Multi-Functional Fundus Imaging Device with Integrated Display and Eye-Tracking
Capabilities
Y. Lu and H. Hua (The Univ. of Arizona / USA)The paper introduces a stock element fundus imaging device capable of image capture, display, and eyetracking, using beam splitters for optical path division and near-infrared illumination for eye-tracking.
F1C-05(10:10) Fabrication and Performance of a Wavefront Coding Element for Presbyopia
B. A. Cvarch (The Univ. of Arizona / USA), E. Acosta (Univ. of Santiago de Compostela / Spain), E. G.
Amador (Polytechnic Univ. of Tulancingo / Mexico), J. Arines (Univ. of Santiago de Compostela /Spain), Y. Kim, S. Park, M. Bog (Y&DK / Korea), and D. Kim (The Univ. of Arizona / USA)This study presents a novel wavefront coding design based on non-symmetric phases for extending therange of clear vision of intraocular lenses. The design was verified through simulation andmanufactured using single point diamond turning.

9:00-10:25[F3C] C3. Optical Systems

Room: ILC140

Presiders:S. Manuel (Lawrence Livermore National Laboratory / USA)
F. Willomitzer (The Univ. of Arizona / USA)
F3C-01 (Invited)(9:00)
Self-Referential Holography Meets AI Technologies
M. Takabayashi (Kyushu Institute of Technology / Japan)
Recent progresses on AI-enhanced optical data storage based on self-referential holography (SRH), selfreferential holographic data storage (SR-HDS), and optoelectronic neural network hardware based on
SRH, self-referential holographic deep neural network (SR-HDNN), are introduced.

F3C-02(9:25)
Mitigating Strong Turbulence Effects in Free-Space Optical Communications with Wavelength
Diversity as a Cost-Effective Alternative to Adaptive Optics
V. Nafria and I. B. Djordjevic (The Univ. of Arizona / USA)We demonstrate that the C+L-bands-based wavelength diversity scheme outperforms the corresponding
adaptive optics scheme operated in an LDPC-coded 1.5 km long free-space optical low probability ofintercept (LPI) communication link in strong atmospheric turbulence regime.
F3C-03(9:40)
Diffractive Beam Steering for Time-of-Flight Lidar by MEMS Spatial Light Modulators
R. Shrestha, L. A. McKenna, Y. Zhang, E. R. Varghese, X. Deng, J. C. Chamg, Y. Kaneda, and Y.
Takashima (The Univ. of Arizona / USA)A diffractive beam steering by MEMS spatial light modulator enables a new lidar optical architecture thathybridizes point-and-shoot lidar for a long-range and a flash lidar for wide field-of-view and short-range
while employing solid-state components.
F3C-04(9:55)
Model-Based Three-Dimensional Digital Image Vibration Measurement Method Using Stereo
High-Speed Cameras
W. Qin, K. Shimasaki, F. Wang, S. Hu, and I. Ishii (Hiroshima Univ. / Japan)
By introducing three-dimensional model, a three-dimensional vibration measurement method based on
digital image correlation using stereo high-speed cameras is proposed to overcome the problems of
conventional methods. An experiment using a speaker verified its effectiveness.
F3C-05(10:10) Polarimetry with a Flexible Fiber Bundle Enabled by a Pixelated Polarizer
N. Lima and T. W. Sawyer (The Univ. of Arizona / USA)
Spatially resolved polarimetric information is measured through a flexible coherent imaging fiber
bundle. The use of a pixelated polarizer enables this novel work.

10:25-10:35
10:35-11:45

Short Break[F1D] C1. Optical Design/Simulation/Fabrication

Room: ILC120

Presiders:Y. Kim (The Univ. of Arizona / USA)
O. Kirino (Crystal Optics / Japan)
F1D-01 (Invited)(10:35) Industrial Wavefront Metrology toward 100% Inspection
C. Liang (National Central Univ. / Taiwan), B. Peng, and G. Lin (Tacoptics / Taiwan)
In response to the transition from per-cavity to per-lens testing, an automatic wavefront metrology system
is developed. It meets high-volume optical testing needs by simultaneously measuring surface centration
and aspheric wavefront profile without optical null.
F1D-02(11:00) Large Shift Diffractive Chromatic Objective for Chromatic Confocal Microscopy
R. Liang, J. Chen, S. Li, W. Kang, and S. Guan (The Univ. of Arizona / USA)We designed and manufactured a new objective using diffractive optical elements to achieve the longchromatic shift. This chromatic microscope allows for the simultaneous capture of images within large
depth, while maintaining the lateral resolution of 780nm.
F1D-03(11:15) Design of the Hyperchromatic Objective
S. Li, W. Kang, J. Chen, and R. Liang (The Univ. of Arizona / USA)
Chromatic confocal microscopy eliminates mechanical axial scanning to simplify the system and enhancemeasurement efficiency. We design a custom chromatic confocal objective to introduce large longitudinal
chromatic aberration in Zemax.

F1D-04(11:30) Through-Focus Scanning Intensity Profile Simulation for Semiconductor Inspection System
Development
B. Jeong, H. Choi, Y. Kim, and D. Kim (The Univ. of Arizona / USA)This paper presented through-focus re-irradiation simulation to detect the scattering from thesemiconductor structure. The wave propagation of the infinitesimal structure is an essential process insemiconductor inspection in through-focus scanning optical microscopy (TSOM) system.

10:35-11:30[F3D] C3. Optical Systems

Room: ILC140

Presiders:M. Hanft (Carl Zeiss / Germany)
M. Kupinsky (The Univ. of Arizona / USA)
F3D-01 (Invited)(10:35) Slimming Optical Systems and Boosting Performance with Differentiable Imaging
N. Chen (The Univ. of Arizona / USA)
Computational imaging necessitates a harmony between physical encoding and computational decoding,often leading to the need for additional hardware or measurements that can compromise imaging
performance. Our research suggest that differentiable imaging offers an effective approach to navigate
these challenges across multiple imaging systems.
F3D-02(11:00) Radial Distortion Measurement Using Retinal Images of a Tunable Eye Model
Y. Guan, J. Schwiegerling, T. W. Sawyer, and F. Willomitzer (The Univ. of Arizona / USA)We demonstrate a first-generation system to measure the distortion value in the retinal images of an eye
model with the presence of various degrees of ametropia. Our system can be used to examine the relation
between lens-induced distortion and myopia progression in future research studies.
F3D-03(11:15) Three-Dimensional Object Tracking Using Waveguide Digital Holographic Microscopy
A. Tabuchi, K. Hayashi, M. Faheem, Y. Murai, Y. Kikuchi, and E. Watanabe (The Univ. of ElectroCommunications / Japan)
The Digital Holographic Microscope is a potent tool for bioimaging. We developed an ultra-compact
Waveguide Digital Holographic Microscope and quantitatively evaluated its specifications. We also
demonstrated object imaging and tracking in three-dimensional space.
F3D-04 (Withdrawn)

11:45-13:15

Lunch

13:40-14:25[F2C] C2. Optical Components / Devices

Room: ILC120

Presiders:A. Tabuchi (The Univ. of Electro-Communications / Japan)
J. Jones (The Univ. of Arizona / USA)F2C-01 (Withdrawn)
F2C-02(13:40) Real-Time 3D Objects Generation by MEMS Phase Light Modulator Based on Camera Input for
ADAS Applications
Y. Zhang (The Univ. of Arizona / USA)A newly available MEMS Phase Light Modulator and accelerated CGH calculation enables real-time
generation of 3D point cloud and line objects rendered from camera input.
F2C-03(13:55) Towards Fast and High-Resolution Adaptive Optics Using Phase Light Modulators
J. M. Bass, J. Y. Chen, G. M. Nero, T. L. Koch, Y. Kaneda, I. B. Djordjevic, F. Willomitzer, and Y.
Takashima (The Univ. of Arizona / USA)

Adaptive optics systems traditionally use deformable mirrors with key resolution and speed limitations.
We demonstrate first steps toward a high-resolution adaptive optics system using a recent Texas
Instruments Phase Light Modulator capable of kHz speeds.
F2C-04(14:10) Improving Efficiency of Reflective MEMS Spatial Light Modulators for Infrared Applications by
Engineering Cover Glasses
E. R. Varghese, X. Deng, Y. Kaneda, and Y. Takashima (The Univ. of Arizona / USA)
Mismatch of wavelength to anti-reflective (AR) coating decreases throughput of MEMS spatial light
modulators due to reflective loss of cover glasses. Removing single side of AR coatings recovers
throughput with p-polarization illumination at a large angle of incidence.

13:15-14:25[F4C] C4. New Technologies

Room: ILC140

Presider:K. Komuro (Nikon Research Corporation of America / USA)
F4C-01 (Invited)(13:15) Computational 3D Video Microscopy with Multi-Camera Arrays
R. Horstmeyer (Duke Univ. / USA)This talk describes our recent work with multi-camera array imaging platforms, which provide novel highspeed, high-resolution, large area 3D mesoscopic imaging capabilities at multi-gigapixels-per-second.
F4C-02(13:40) Fundamental Properties of Beam-Splitters in Classical and Quantum Optics
M. Mansuripur and E. Wright (The Univ. of Arizona / USA)
We examine a pair of (nearly) single-mode wave-packets in the number-states |n1⟩ and |n2⟩ thatsimultaneously arrive at a beam-splitter’s input ports, and find the distribution of photon-number states atthe output ports using an argument inspired by Feynman’s scattering analysis of indistinguishable Bose
particles.
F4C-03(13:55) Enhanced Surface Second Harmonic Generation from Resonant Silicon Nano-Structures
K. Ueda, S. Hirayama (The Univ. of Tokyo / Japan), R. Fujimura (Utsunomiya Univ. / Japan), and T.
Shimura (The Univ. of Tokyo / Japan)
It is shown that surface SHG can be enhanced by array of silicon nanostructures numerically. Hugeenhancement up to the order of 105 is realized when the Mie resonance and Bloch resonance occurs
simultaneously.
F4C-04(14:10) Towards Synthetic Wavelength Imaging through Multi-Mode Fibers
S. Forschner, P. Cornwall (The Univ. of Arizona / USA), M. Ballester (Northwestern Univ. / USA), M. M.
Balaji (Southern Methodist Univ. / USA), J. Czarske (The Univ. of Arizona / USA, Dresden Univ. ofTechnology / Germany), and F. Willomitzer (The Univ. of Arizona / USA)This work exploits synthetic wavelength imaging to circumvent scattering artifacts and measure phasefronts emerging from multi-mode fibers. These fibers behave as single-mode fibers at synthetic
wavelengths, enabling the possibility to acquire unspeckled wavefronts and range information.

14:25-14:35

Short Break

14:35-15:30[F2D] C2. Optical Components / Devices

Room: ILC120

Presider:R. Liang (The Univ. of Arizona / USA)F2D-01 (Invited)(14:35) Kyocera Low Thermal Expansion Ceramic : Fine-Cordierite for Space Optics
K. Ho, M. Kamiura, S. Iwashita, K. Ishiyama, and K. Kitanaka (Kyocera / Japan)“Fine-Cordierite” is suitable for space optics as optical mirror substrates and structural components. Its
primary feature is zero expansion at room temperature, which contributes to the improvement of optical
performance in your system.

F2D-02(15:00) Linear Wavenumber Sweeping in External Cavity Laser Diode Based on an Acousto-Optic
TechniqueT. Suzuki, X. Ji, S. Choi, and O. Sasaki (Niigata Univ. / Japan)
Novel swept source configured by an external cavity laser diode is described. An acousto-optic techniqueenables linear wavenumber sweep with a simple configuration. Experimental results confirm thewavelength range of 120 nm at 1310 nm.
F2D-03(15:15) Polibot: Concept and Early Prototypes for an Autonomous Mirror Polishing Robot to Accelerate
the Fabrication of Large Reflective Optics
K. Z. Derby, M. Duque, C. Scoggins, H. Kang, V. S. Negi, C. Lee, and H. Choi (The Univ. of Arizona /USA)
We propose a novel method to accelerate the mirror polishing process using multiple autonomous
polishing robots called “Polibots”. These are guided by an overhead camera which can then be used forin-situ metrology using deflectometry.

14:35-15:30[F4D] C4. New Technologies

Room: ILC140

Presider:R. Horstmeyer (Duke Univ. / USA)
F4D-01 (Invited)(14:35) Recent Progress of Computational Optical Scanning Holography
N. Yoneda and O. Matoba (Kobe Univ. / Japan)
Computational optical scanning holography (COSH), one of single-pixel holography techniques, havebeen applied to various applications such as phase, polarization, and scattering imaging so far. Recent
progress of COSH is reviewed in this presentation.
F4D-02(15:00) Progress on Demonstration of a MODE-Lens Telescope
T. D. Milster, N. Brar, Y. Kim, H. Choi, M. Esparza, D. Kim (The Univ. of Arizona / USA), A. Yi, Y. Cai(The Ohio State Univ. / USA), G. H. Kim (Hanbat National Univ. / Korea), and D. Apai (The Univ. of
Arizona / USA)A multiple-order-diffractive engineered (MODE) surface lens telescope is being developed for eventual
use in space. This presentation provides the current status of the project.
F4D-03(15:15) Coherence-Based Lensless Imaging and Telescopy
A. P. Jillella (The Univ. of Arizona / USA, Advanced Semiconductor Materials Lithography / USA) andT. D. Milster (The Univ. of Arizona / USA)
We propose a coherence-based lensless imaging method using an X-aperture that creates a diffraction
pattern used to measure the mutual coherence function of an extended object. Multiple measurements areused to reconstruct the object.

15:30-16:00

Coffee Break16:00-18:00
Presider:Special Session

Room: ILC120

Y. Takashima (The Univ. of Arizona / USA)

FSS-01 (Invited)(16:00) The quest for a harmonious blend of bits and atoms
H. Hua (The Univ. of Arizona / USA)In this talk, I will give a brief overview of the OASIS project which aims to establish a regional
ecosystem focusing on optics for autonomous services and intelligent systems. I will then review the
recent progress, challenges, and opportunities for developing virtual and augmented reality displays for
improved visual comfort.
FSS-02 (Invited)(16:20) Camera Modules for Ubiquitous Imaging
F. Willomitzer (The Univ. of Arizona / USA)
Integrated processing units combining camera modules, coded illumination and wavefront imaging
enable a novel form of standardized imaging system for autonomous systems. Standardized visual
processing units are essential for sustainable development of such systems.
FSS-03 (Invited)(16:40) Diffractive Information Processing and Computational Imaging
A. Ozcan (Univ. of California Los Angeles / USA)I will discuss diffractive optical networks designed by deep learning to all-optically implement various
complex functions as the input light diffracts through spatially-engineered surfaces.
FSS-04 (Invited)(17:00) Advancements in Deflectometric Optical Testing for Industrial Precision
H. Choi, H. Kang, Y. Huang, and D. Kim (The Univ. of Arizona / USA)
In industrial inspection and testing, diverse specifications and metrology precision are crucial.
Deflectometry, a renowned non-null optical test, adapts system layouts to fulfill varied testing needs.
We've developed deflectometry systems to address diverse industrial applications. This paper outlines
multiple deflectometry systems and their testing outcomes.
FSS-05 (Invited)(17:20) Use of Computer Generated Holograms for Aligning Optical Systems
J. Burge (Arizona Optical Metrology / USA)The application of interferometry with Computer Generated Holograms is well known for measuring
precision optical surfaces. The accuracy and flexibility of this method also enables efficient alignmentand calibration of complex optical systems.
(17:40)Free Discussion
All the speakers sit in front of the audiences and have a free discussion on what would happen within 510 years of time span, and how to make the OASIS concept happen.

18:00-18:30

Closing Session

Presider:H. Kawano (Mitsubishi Electric / Japan)
Best Paper Award
J. Sasián (The Univ. of Arizona / USA)
Y. Kawata (Shizuoka Univ. / Japan)
D. Kim (The Univ. of Arizona / USA)
H. Kawano (Mitsubishi Electric / Japan)
Closing Remarks
Y. Takashima (The Univ. of Arizona / USA)M. Hasegawa (Canon / Japan)

Room: ILC120

INSTRUCTIONS FOR SPEAKERS
All speakers are required to register for participation in ODF'24. English will be used for all presentations andprinted materials.
(Oral presentation)
Oral session will be held in “ILC120 (Integrated Learning Center 120)” or “ILC140 (Integrated Learning Center
140)”. The presentation time will be 40 minutes for plenary session (including 5 minutes discussion), 25 minutes
for invited papers (including 5 minutes discussion) and 15 minutes for contributed papers (including 3 minutes
discussion). The format of the special session is as follows. First, speakers present their topic for 20 minutes as ashort presentation (including 5 minutes discussion). After the presentation, all the speakers sit in front of theaudience, and have a free discussion for 20 minutes. The total time will be 120minutes for special session. An
attention bell will be given three times as in the table below. A PC-based data projector is available.
Speakers are asked to bring their presentation files with their own USB thumb drive. It is the presenter's
responsibility to copy your presentation file as soon as possible in each session room at any break in advance to thesession of your presentation. The file must be compatible with Microsoft PowerPoint or Adobe Acrobat on
Microsoft Windows indicated above. Your presentation file will be surely deleted after the session.
(1) Presentation time
Plenary Session
Invited Papers
Contributed Papers
Short Presentation forSpecial Session

Presentation
35min.
20min.
12min.

Discussion
5min.
5min.
3min.

Total
40min.
25min.
15min.

15min.

5min.

20min.

(2) Attention bell

30min.
15min.
10min.

2nd bell(End of Speech)
35min.
20min.
12min.

3rd bell(End of Discussion)
40min.
25min.
15min.

12min

15min

20min

1st bell
Plenary Session
Invited Papers
Contributed Papers
Short Presentation forSpecial Session(Poster presentation)
Poster session will be held in “ILC141 (Integrated Learning Center 141)” on Thursday, 11 July.
Time
Preparation: By 13:00 on July 11
Poster Session
Presentation: 13:00-16:00 on July 11
Removal: By 13:00 on July 12
Poster boards will be around 1.22 m high and 2.41 m wide boards. Two authors will share one side of the board.
The two A0 portraits (841 x 1189 mm) can be placed side by side on the board. Poster should have minimum fontsize for text of 18 pt. Text and graphics should be readable from at least one meter.
Authors must remain in the vicinity of the bulletin board during the specified time slot to answer questions inEnglis. The specified time slot for authors with odd-numbered poster (ThP-01, ThP-03, …) is from 13:00 to 14:30(90 minutes). The specified time slot for authors with even-numbered poster (ThP-02, ThP-04, …) is from 14:30 to
16:00 (90 minutes). Authors are required to remove all the materials on the bulletin board by 13:00 on July 12th.
To start the session on time each author must complete the preparation 15minutes before. Poster numbers will be
displayed on the upper left side on the bulletin board.

BEST PAPER AWARD
The best paper among the contributed papers will be awarded through the examination by the program committee
at the end of the conference. There are four types of awards available:- Best Paper Award- Best Poster Award- Student Paper Award- Student Poster Award

POST-DEADLINE PAPERS
Post-deadline papers will be accepted for presentation in poster sessions. The latest and most significant results
obtained after the regular deadline are most welcome.
35-word Abstract: The 35-word abstract should be a brief summary of the work. If the submission is accepted forpresentation, this 35-word abstract will be included in the Advanced Program.
2-page Summary (up to 2 pages maximum): The author must include all text, including the 35-word abstract, title,
authors, equations, tables, photographs, drawings, figures, and references. The text should be typed single-spaced.
Refrain from using asterisks, job descriptions, or footnotes.
Page Format: A4, 8.27 in. × 11.69 in. paper (210 mm by 297 mm) with 1-inch margins (2.54 cm) on all sides
Accepted 2-page summaries will be disclosed on the first day of the conference.
Please submit your 35-word Abstract & 2-page on the website.
https://reg-cloud.com/odf24abstract/Entry/login.aspx
For the layout of manuscript, please see the Guidelines on the ODF'24 website.
http://www.odf.jp/submission.html
The deadline for submission of post-deadline papers is on May 25, 2024.
Review result will be noticed by June 15, 2024. As well as the regular submission, the copyright of the article
published in the ODF'24 Technical Digest is to be transferred to the Optical Society of Japan (OSJ). The authors are
required to agree to the copyright transfer when the 35-word abstract and the 2-page manuscripts are submitted.
For inquiries, please contact ODF'24 Secretariat:

odf24@ pacmice.jp

ODF'24 SPECIAL ISSUE OF OPTICAL REVIEWThe special issue of OPTICAL REVIEW, the journal of the Optical Society of Japan, for the 14th International
Conference on Optics-Photonics Design & Fabrication "ODF'24, Tucson" will be published in July 2025. All
contributors of ODF'24 are strongly encouraged to submit their original papers for this special issue. Submissions
from invited speakers are also welcome.
Submissions will be accepted from July 13th, 2024 to September 30th, 2024. Please check the website for theapplication form.
Please note that all the submitted papers must be at least 4 pages in length and will be accepted based on theeditorial policy of OPTICAL REVIEW.
The following is the submission site of Springer, the publishing company.
http://www.editorialmanager.com/opre/default.aspx
If you need further information, please contact Hiroyuki Kawano at the address below:
Topical Editor, ODF'24 Special Issue: Dr. Hiroyuki Kawano
Mitsubishi Electric Corp.
E-mail: or_special_issue@odf.jp

REGISTRATION⚫

Registration Fee (USD)

The registration fee includes admission to technical sessions and online Technical Digest. As for the person who
paid the registration fee, the reception fee is free except for students. Students may attend the reception for an
additional fee.

Type

Before / on Jun. 9th, 2024**

After Jun. 9th, 2024**

Member*

USD 550

USD 600

Non-Member

USD 600

USD 650

Student

USD 100

USD 100

InvitedUSD 300

USD 300

Reception
USD 100
For Student[*] Member of sponsor and cooperative society[**] Time in Arizona (GMT -7, MST)⚫

USD 100

Registration

Participants in ODF'24 are required to register on the registration page. The deadline for advanced registrationis June 9th, 2024.
Online registration: http://www.odf.jp/registration.html⚫

Cancellation Policy

There will be no refunds for the registration fee.

EXECUTIVE COMMITTEE MEMBERS
General Co-Chairs:
J. Sasián (The Univ. of Arizona / USA)
Y. Kawata (Shizuoka Univ. / Japan)

Advisory Board Members:
Y. Arakawa (The Univ. of Tokyo Prof. Emeritus / Japan)
K. Araki (Utsunomiya Univ. / Japan)
J. I. Chyi (National Central Univ. / Taiwan)
D. Granciu (IOR / Romania)
Y. Kim (KAIST / Korea)
K. Konno (Konica Minolta / Japan)
K. Kuroda (Utsunomiya Univ. / Japan)
C. C. Lee (National Central Univ. / Taiwan)
C. W. Liang (National Central Univ. / Taiwan)
Y. Miyake (Chiba Univ. Prof. Emeritus / Japan)
D. T. Moore (Univ. of Rochester / USA)M. Shibuya (Tokyo Polytech. Univ. Prof. Emeritus / Japan)
C. K. Sun (National Taiwan Univ. / Taiwan)
M. Takeda (Utsunomiya Univ. / Japan)
R. Y. Tsai (Caduceus Biotechnology Inc. / Taiwan)
V. Vasilyev (ITMO Univ. / Russia)

Organizing Committee
Co-Chairs:
M. Mansuripur (The Univ. of Arizona / USA)
S. Yamaguchi (Konica Minolta / Japan)

Members:
Y. Awatsuji (Kyoto Inst. of Tech. / Japan)
F. Bociort (Delft Univ. of Tech. / Netherlands)
S. Hiura (Univ. of Hyogo / Japan)
K. Itoh (Osaka Univ. / Japan)
Y. S. Liu (National Tsing Hua Univ. / Taiwan)
R. Magnusson (Univ. of Texas at Arlington / USA)O. Matoba (Kobe Univ. / Japan)
J. Rolland (Univ. of Rochester / USA)
J. Tanida (Osaka Univ. / Japan)
D. P. Tsai (City Univ. of Hong Kong / Hong Kong)
H. Tsuchida (Team-Opt Corp. / Japan)
N. Tsumura (Chiba Univ. / Japan)

Program Committee
Co-Chairs:
D. Kim (The Univ. of Arizona / USA)
H. Kawano (Mitsubishi Electric / Japan)

Members:
L. Cao (Tsinghua Univ. / China)
Y. C. Fang (National Yang Ming Chiao Tung Univ. / Taiwan)
S. Hasegawa (Utsunomiya Univ. / Japan)
N. Hashimoto (Japan Women's Univ. / Japan)
J. Heber (Fraunhofer IPMS / Germany)
R. Horisaki (The Univ. of Tokyo / Japan)
D. K. Kang (The Univ. of Arizona / USA)
R. Katayama (Fukuoka Inst. of Tech. / Japan)
N. Kerwien (Carl Zeiss / Germany)
K. Komuro (Nikon Research Corporation of America / USA)T. Konishi (Osaka Univ. / Japan)
K. Konno (Konica Minolta / Japan)
M. Kupinski (The Univ. of Arizona / USA)T. Lépine (Institut d'Optique & Hubert Curien Lab / France)
R. Liang (The Univ. of Arizona / USA)S. H. Lin (National Yang Ming Chiao Tung Univ. / Taiwan)
X. Lin (Fujian Normal Univ. / China)
Y. H. Lin (National Yang Ming Chiao Tung Univ. / Taiwan)
I. Livshits (ITMO Univ. / Russia)
K. Maru (Kagawa Univ. / Japan)
H. Mikami (Hokkaido Univ. / Japan)
R. Mildren (Macquarie Univ. / Australia)
T. Milster (The Univ. of Arizona / USA)
M. Mizusawa (AAC Technologies Japan R&D Center / Japan)
I. Moon (DGIST / Korea)
S. Nagata (Hitachi / Japan)
T. Nakano (Mitsubishi Electric / Japan)
T. J. Naughton (Maynooth Univ. / Ireland)
N. K. Nishchal (Indian Inst. of Tech. Patna / India)
T. Nobukawa (NHK / Japan)
T. Nomura (Wakayama Univ. / Japan)
Y. Ogura (Osaka Univ. / Japan)
H. Ohno (Toshiba / Japan)
J. -H. Park (Seoul National Univ. /Korea)
Y. Suzuki (Evident / Japan)
M. Toyoda (Tokyo Polytech. Univ. / Japan)
E. Watanabe (The Univ. of Electro-commun. / Japan)
M. Yamagata (Panasonic / Japan)
T. Yamanashi (Theta Optical LLC / USA)R. N. Youngworth (Riyo LLC / USA)

Steering Committee
Co-Chairs:
Y. Takashima (The Univ. of Arizona / USA)M. Hasegawa (Canon / Japan)

Members:
M. Hashimoto (Konica Minolta / Japan)
K. Ikeda (Ansys Japan / Japan)
T. Iwasaki (Fujifilm / Japan)
Y. Kaneda (The Univ. of Arizona / USA)
Y. Kubota (Olympus / Japan)
A. Makida (Nikon / Japan)
T. Morimoto (Mitsubishi Electric / Japan)
M. Nagasawa (Hitachi / Japan)
H. Sakai (Hamamatsu Photonics/ Japan)
T. Sawyer (The Univ. of Arizona / USA)
H. Shobayashi (Panasonic / Japan)
S. Tajiri (Sony Group / Japan)
T. Taniguchi (Mitsubishi Chemical / Japan)
F. Willomitzer (The Univ. of Arizona / USA)Y. Yamamoto (Toshiba / Japan)
Y. Yokoyama (Ricoh / Japan)
T. Yukimori (Topcon / Japan)
S. Yukita (Synopsys / Japan)

CONFERENCE SITE
ODF'24, Tucson, will be held at The University of Arizona, Tucson, Arizona, U.S.A.
Access: https://www.arizona.edu/

CAMPUS MAP

Integrated Learning Center

Bear Down Gym

FLOOR MAP (Integrated Learning Center)
Oral Session on July 12

Oral Session on July 10-12

Poster Session on July 11

Deadlines
Post Deadline Papers:
Discount Registration:
On-site Registration：

May 25, 2024
June 9, 2024
July 10-July 12, 2024

For information mailAbout Post-deadline papers, Registration, and Best paper award:

odf24@ pacmice.jp
ODF'24 special issue of optical review:or_special_issue@ odf.jp