Plenary Speakers
-
David Wineland
Nobel Laureate, Professor of Physics, University of Oregon
Quantum state superpositions and entanglement are important elements in many atomic physics-based experiments and applications. How these features are employed with trapped atomic ions in spectroscopy, clocks, and in the nascent field of quantum computation are briefly described and could lead to an analog of Schrödinger's famous cat.
David Wineland is an American physicist who was awarded the 2012 Nobel Prize for Physics for devising methods to study the quantum mechanical behaviour of individual ions. He shared the prize with French physicist Serge Haroche. Wineland received a bachelor’s degree in physics from the University of California, Berkeley, in 1965 and a doctorate in physics from Harvard University in 1970. He was then a postdoctoral researcher at the University of Washington and from 1975 to 2017 he worked at the National Institute of Standards and Technology in Boulder, Colorado. He later taught at the University of Oregon.
Wineland’s work concentrated on studying individual ions trapped in an electric field. Beginning in 1978 he and his collaborators used laser pulses of light at specific wavelengths to cool the ions to their lowest energy state, and in 1995 they placed the ions in a superposition of two different quantum states. Placing an ion in a superposed state allowed the study of quantum mechanical behaviour that had previously only been the subject of thought experiments, such as the famous Schrödinger’s cat. (In the 1930s German physicist Erwin Schrödinger, as a demonstration of the philosophical paradoxes involved in quantum theory, proposed a closed box in which a cat whose life depends on the possible radioactive decay of a particle would be both alive and dead until it is directly observed.)
-
Vladan Vuletić
Lester Wolfe Professor of Physics, Massachusetts Institute of Technology
Atom-light interactions are at the heart of atomic and quantum physics, enabling a wide range of applications from precision measurements to quantum information processing. Many of these applications rely on, or benefit from, quantum entanglement. Professor Vladan Vuletić will discuss two such applications, spin squeezing and Rydberg array quantum computing with neutral atoms.
Professor Vladan Vuletić was born in Pec, Serbia, Yugoslavia, and educated in Germany. In 1992, he earned the Physics Diploma with highest honors from the Ludwig-Maximilians-Universität München, and in 1997, a PhD in Physics (summa cum laude) from the same institution. He then went on to work with Professor Steven Chu at Stanford University as a Lynen Fellow of the Humboldt Foundation. In 2000, he was appointed an Assistant Professor in the Department of Physics at Stanford and in June 2003 accepted an Assistant Professorship in Physics at MIT. He was promoted to Associate Professor in July 2004, and to Full Professor in July 2011.
Visionary Speakers
-
Laser Science Visionary Speaker
Mete AtatüreProfessor of Physics – Head of the Cavendish Laboratory, University of Cambridge
Defects are what gives diamond colour. They also offer a route towards solid-state quantum technologies. Today, there is a growing list of material platforms, whose defects can couple to quantum light in an integrated and scalable way. This talk will highlight recent advances in harnessing these atomic-scale quantum systems for applications ranging from quantum networks to sensors.
Mete Atatüre received his Bachelor of Science degree in 1996 from Bilkent University Physics Department in Turkey. Then, he joined the Quantum Imaging Laboratory at Boston University for his PhD studies. From 2002 to 2007, he worked as a Postdoctoral Fellow in the Quantum Photonics Group at ETH Zurich. He joined the Cavendish Laboratory in June 2007 as a University Lecturer, was promoted to a Readership in 2011 and to a Professorship in 2015.
-
Frontiers in Optics Visionary Speaker - Space Optics
John W. ConklinProfessor of Mechanical and Aerospace Engineering, University of Florida
Advancements in precision laser metrology and accelerometry over the next two decades will enable new observations from space that will answer fundamental questions about our changing climate, the existence of life on distant planets, and the fundamental nature of our universe. This presentation is a preview of what is to come in satellite geodesy, precision coronagraphy, and gravitational wave observation.
John W. Conklin is the Don D. and Ruth S. Eckis Professor of Mechanical and Aerospace Engineering at the University of Florida and Assistant Director of the UF Astraeus Space Institute. He joined the UF faculty in 2012 after a three-year research associateship at the W.W. Hansen Experimental Physics Laboratory at Stanford. He received his BS and MEng degrees from Cornell and PhD from Stanford. In 2011, John was the Fulbright Junior Lecturer at the University of Trento in Italy. He has served as Vice-chair and member of NASA’s Astrophysics Advisory Committee. John has been awarded the NASA Group Achievement Award in 2005 for the Gravity Probe B science team, the Balhaus Prize in 2009 for best PhD thesis in Aeronautics and Astronautics at Stanford, the Zeldovich Medal in 2010, the NASA Early Career Faculty Award in 2014, NASA’s Nancy Grace Roman Technology Fellowship in Space Astrophysics for Early Career Researchers in 2015 and the Space Science Award from AIAA in 2016.
-
Frontiers in Optics Visionary Speaker - Virtual Reality and Augmented Vision
Hong HuaHong Hua, Professor, James C. Wyant College of Optical Sciences, University of Arizona
Optical technologies fundamentally play a pervasive role in many of the recent breakthroughs, enabling human-centric virtual and augmented display and human interface technologies. In this talk, I will share historical highlights, demonstrate recent examples and advancements, and discuss emerging technologies and challenges in developing high-performance virtual and augmented reality display systems.
Dr. Hong Hua is currently the Jean M. Bennett Optica endowed Chair Professor at the James C. Wyant College of Optical Sciences, University of Arizona. An expert in 3D displays, head-worn systems for AR/VR and medical imaging, she holds over 60 US patents and 95+ foreign patents and has authored 300+ publications. Dr. Hua is a Fellow of SPIE, Optica, NAI and a member of the IEEE VGTC VR Academy. Her work has earned numerous awards, including an NSF CAREER Award, Google and Intel faculty awards, 2024 American Innovator Award and the 2024 Inventor of the Year by University of Arizona. She has served in leadership roles across major conferences and journals, and continues to shape the field through research, innovation and professional service.
-
Frontiers in Optics Visionary Speaker - Machine Learning
Tyler HughesResearch Scientist, Flexcompute
Machine learning and electromagnetics share deep mathematical foundations. I’ll overview fundamental ML concepts and show how they map naturally onto photonic device design—from inverse design, to surrogate modeling and GPU-accelerated simulation. We'll explore how the application of these ideas unlocks a new paradigm for photonic design and simulation.
Tyler Hughes is Head of Photonics at Flexcompute Inc. He is one of the principal developers of the Tidy3D electromagnetic simulation tool. He completed his PhD at Stanford University in 2019, working with Professor Shanhui Fan on inverse design and analog machine learning using photonics.
-
Laser Science Visionary Speaker
Prineha NarangProfessor of Physical Sciences and Electrical and Computer Engineering, UCLA
Nature's most fascinating phenomena occur far from equilibrium - from the swirling storms of Jupiter to the dance of quasiparticles in quantum systems. While textbooks might portray physics through the lens of equilibrium, our Universe is dynamic, perpetually seeking but never reaching balance. This lecture will discuss both fundamentals of nonequilibrium dynamics in quantum matter and applications of these in quantum devices. Advances in theoretical understanding and computational approaches to correlated states in quantum matter, paired with leading experiments in ultrafast nonlinear optical spectroscopy now allow us to reveal emergent states created by strongly non-equilibrium external drives. Following a pedagogical introduction to these advances, this lecture will present the latest results in accessing observables in nonequilibrium interactions with coupled dynamics of spins, nuclei and light.
Dr. Prineha Narang is a Professor of Physical Sciences and Electrical & Computer Engineering at UCLA, with research spanning quantum materials, non-equilibrium dynamics, and quantum information science. Previously, she was a faculty member at Harvard and held research roles at MIT and HUCE. She holds a Ph.D. from Caltech and has received numerous honors, including the Guggenheim Fellowship, Maria Goeppert Mayer Award and NSF CAREER Award. Dr. Narang has led DOE and NSF research centers and serves in leadership roles across APS, Optica and MRS. She is an Associate Editor at ACS Nano and Applied Physics Letters.