![]() Barry Silverstein Senior Director Meta ------------------------- Advancing the Human-Computer Interface Through The Development of Polarization Volume Hologram and Etched Silicon Carbide Waveguides | ![]() Juergen Daleiden VP GlobalFoundries ---------------------------------------------- Advancements in Display Driver Semiconductor Technology: Shaping the Future of Visual Experiences |
![]() Yusin Lin (林裕新) Managing Director, OLED R&D Head, Display and Flexible Technology, Applied Materials ------------------------- Revolutionizing OLED Display Manufacturing with MAX OLED Solution | ![]() Tian Xue (薛天) Professor University of Science and Technology of China ---------------------------------------------- TBD |
![]() Qiong-Hua Wang(王琼华) Professor Beihang University ---------------------------------------------- Integral Imaging Light Field 3D Display with High Performance More keynote speakers to be updated. |
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Barry Silverstein is a Senior Director in Optics and Display Research at Meta's Reality Labs, leading technology development in cutting-edge displays for VR and AR. With a focus on creating the world's smallest and most efficient visual imaging systems, he is pushing the boundaries of what's technologically and commercially viable. Before joining Meta, Barry was Senior Research Director at IMAX, where he won an Academy Award in Research and Technology for inventing and commercializing IMAX with Laser technology, bringing the iconic IMAX experience to the world's largest screens. With 28 years of experience at Kodak's research laboratory, and 98 issued US patents, Barry is a seasoned expert in laser projection, imaging/printing, space imaging, and optical recording. A graduate of the Institute of Optics at the University of Rochester, Barry is a true visionary in the field.
Advancing the Human-Computer Interface Through The Development of Polarization Volume Hologram and Etched Silicon Carbide Waveguides
Augmented Reality (AR) is poised to revolutionize human-computer interaction by seamlessly integrating digital elements onto our physical world. To realize this vision, it is crucial to develop displays that blend effortlessly with reality, maintaining a compact form factor without obstructing the user with artifacts or perceptual mismatch. Although progress has been made, further breakthroughs in Optics, OptoElectronics, and Photonics are essential to meet the rigorous requirements of size, quality, efficiency, and cost. Polarization Volume Holograms present a promising solution, offering high image quality, minimal light leakage, and high efficiency through a cost-effective and scalable fabrication process. However, achieving a wide field of view is vital for creating effective digital overlays onto the real world. Silicon Carbide emerges as a lightweight, and durable material with a high refractive index, enabling a wide field of view with minimal rainbow artifacts. This talk will explore these waveguide technologies as integral components in the journey towards a new era of human-computer interfaces.
Advancements in Display Driver Semiconductor Technology: Shaping the Future of Visual Experiences
In this talk, we will explore the latest innovations in display driver semiconductor technology that are revolutionizing the way we experience visual content. As display resolutions increase and refresh rates soar, the demand for high-performance display drivers has never been greater. We will discuss the key advancements in semiconductor materials, design architectures, and manufacturing processes that enable enhanced performance, energy efficiency, and integration with emerging display technologies such as OLED and microLED. Additionally, we will examine the challenges faced by the industry and the future trends that will shape the next generation of display driver solutions. Join us for an insightful discussion on how these technologies are paving the way for richer, more immersive visual experiences across various applications, from consumer electronics to automotive displays.
VP Technology Development
Juergen is working over 28 years in the semiconductor business. He started in 1994 with IIIV optical MEMS in various Fraunhofer research institutes in Germany and the Royal Institute of Technology KTH in Sweden.
In 2003 he joined Infineon Technologies and was responsible for the Deep trench module of 110nm down to 70nm DRAM technology as well as several technology transfer projects.
Since 2009, he is with GlobalFoundries, led several global and interdisciplinary projects (55nm to 22nm technology). As a head of the Fab1 Technology Integration and Yield department he led more than 600 people during the volume ramp of the Fab. Since 2024 he took over the R&D lead of the global Feature Rich CMOS product line, accountable for approx 45% of GF's revenue.
Yusin Lin
Managing Director, OLED R&D Head, Display and Flexible Technology, Applied Materials
Yusin Lin is the OLED R&D Head for OLED Patterning BU at Applied Materials, he is the co-inventor and leading the development for MAX OLED Solution including new OLED pixel architecture, process flow and integrated equipment solution. Prior to joining Applied Materials in 2018, he was the OLED R&D Head for AUO Corporation since 2008 where he led R&D team for developing LTPS, Oxide TFTs and OLED technologies for foldable, automotive, TV & lighting applications. Before that he was the Deputy Director for a TFT-LCD manufacturing factory in AUO Corporation.
Revolutionizing OLED Display Manufacturing with MAX OLED Solution
The display industry is going through a major technology transformation. After more than two decades of LCD dominance, OLED adoption is growing. In smartphones, OLEDs have already exceeded 50% market penetration. Now panel and set makers are focused on increasing OLED adoption in larger screens such as tablets, notebook, monitors, and, eventually, TVs. So far adoption in these larger screens has been slow, because of challenges to scale up the fine metal mask (FMM) technology that is used in mobile phones to large glass substrates. At the same time, the blanket-layer OLED technologies have achieved very limited adoption in TVs because they are too expensive and do not perform as well as true RGB OLED.
To help solve these problems and to accelerate OLED adoption in all screen sizes, Applied Materials, has developed the MAX OLED Solution. The MAX OLED™ solution enables OLED display manufacturing on larger glass panels, bringing the superior display technology found in high-end smartphones to tablets, PCs and TVs. It provides patented OLED pixel architecture and a dramatically different manufacturing approach to improve all types of OLED displays, making them even brighter, clearer, more energy-efficient and longer-lasting. The integrated system combines the OLED deposition and encapsulation technologies needed to mass-produce superior OLED displays.
In this presentation, I will discuss the technology inflections in the industry and how Applied’s enabling technologies, including the MAX OLED Solution, will catalyze the large area OLED wave.
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Qiong-Hua Wang is a professor of optics at Beihang University. She was a professor at Sichuan University from 2004 to 2018. She was a research scientist at the School of Optics/CREOL at the University of Central Florida from 2001 to 2004. She was a faculty at the University of Electronic Science and Technology of China (UESTC) from 1995 to 2001. She received B. S., M. S. and Ph. D. degrees from UESTC in 1992, 1995 and 2001, respectively. She published more than 350 papers cited by science citation index and authored 3 books. She holds about 200 U. S. and Chinese patents. She is fellow of SID, OPTICA, SPIE, COS and CSOE. Her research interests include display and imaging technologies.
Integral Imaging Light Field 3D Display with High Performance
Light field 3D display based on integral imaging is an important 3D display. This talk will give an overview of light field 3D display technology, and introduce in detail the desktop light field 3D display and the high-resolution light field 3D display based on integral imaging developed by our team. The former achieves good 3D display effect with 360° horizontal view angle, and the latter achieves good 3D display effect with high resolution. The structure, principle and performance of the light field 3D displays will be given. Finally, the development trend of the light field 3D display is prospected.