Strong-field laser physics and attosecond science

Pierre Agostini is a pioneering French experimental physicist who was jointly awarded the 2023 Nobel Prize in Physics. He shared the honor with Anne L'Huillier and Ferenc Krausz for developing experimental methods that generate attosecond pulses of light to study electron dynamics in matter.
https://www.nobelprize.org/prizes/physics/2023/agostini/facts/
https://physics.osu.edu/people/agostini.4

Intense laser science

Professor Kaoru Yamanouchi developed ground-breaking methods to manipulate and control molecular behavior using ultra-short femtosecond and attosecond laser pulses. By tracking nuclear movements during chemical reactions in real-time, his work made it possible to shoot high-definition "molecular movies" of chemical bonds breaking and forming.
https://www.s.u-tokyo.ac.jp/en/people/yamanouchi_kaoru/

Ultra-intense laser technologies and strong field physics

Prof. Chang Hee Nam’s research group successfully achieved the world's highest focused laser intensity of over 10²³ W/cm², breaking a long-standing record in laser physics. The developments in fs high-power lasers and high-order harmonic generation have provided critical tools for driving laser-based particle accelerators and mapping real-time electron dynamics at the attosecond scale.
https://physics.gist.ac.kr/en/peoples/nam-chang-hee/

Laser Plasma Acceleration

Professor Markus Büscher pioneered key advancements in laser-plasma particle accelerators, proving that intense, pre-polarized gas targets can successfully preserve collective particle spin-alignment during wakefield acceleration, bridging the gap between plasma mechanics and quantum electrodynamics.His group investigates structural nuclear dynamics and generate high-energy electron and proton beams.
https://jusparc.fz-juelich.de/markus-buescher/

Ultrafast phenomena

Professor Chi-Kuang Sun pioneered innovative techniques in nonlinear optical microscopy, developing high-penetration, non-invasive virtual biopsy methods used to diagnose clinical tissue pathologies at sub-nanometer resolutions. As the director of the NTU Ultrafast Optics Group, he successfully mapped foundational insights into nano-acoustics and terahertz photonics, utilizing femtosecond laser developments to manipulate sound waves and light fields at quantum boundaries.
https://www.ee.ntu.edu.tw/profile1.php?id=55

Ultrafast optics and application, femtosecond laser filamentation

Professor Weiwei Liu uncovers new properties of spatial confinement and birefringence during terahertz pulse transmission. He designed China's first in-orbit multi-trace gas detection system, which successfully deployed on the Tiangong-1 and Tiangong-2 spaceships for space-based environmental tracking. His group successfully engineered high-speed, non-destructive 3D terahertz scanning systems that accelerated industrial inspection speeds by over 1,000 times compared to traditional point-scanning technologies.
https://ceoeng.nankai.edu.cn/Faculty/Institute_of_Modern_Optics/Weiwei_Liu.htm

Theoretical and numerical exploration of emergent quantum phenomena.
Prof. Tao Xiang is globally recognized for pioneering tensor network frameworks and renormalization group algorithms used to simulate complex, highly entangled materials. His work applies these advanced tools to decode the microscopic mechanisms of high-temperature superconductivity, quantum spin liquids, and topological phases of matter.
https://theory.iphy.ac.cn/en/182.html

Quantum devices

Professor Hark Hoe Tan has pioneered major breakthroughs in semiconductor optoelectronics, specifically mastering the architectural growth of low-dimensional nanostructures like nanowires, quantum dots, and quantum wells to design high-efficiency next-generation laser diodes, infrared photodetectors, and solar cells. He was honored with the prestigious 2026 IEEE Photonics Society Engineering Achievement Award
https://researchportalplus.anu.edu.au/en/persons/hoe-tan/

Theoretical nuclear physics

Professor Philippe Quentin is a leading authority in microscopic nuclear structure theory, modeling the elementary excitations and pairing correlations of atomic nuclei. He successfully directed two prominent laboratories under France's National Institute of Nuclear and Particle Physics (IN2P3) within the CNRS framework. His research focuses on refining the mathematical foundations of the Higher Tamm–Dancoff Approximation, optimizing particle-number conservation during Hartree–Fock solutions, and calculating semiclassical single-particle level densities near the Fermi surface.
https://www.lp2ib.in2p3.fr/nucleaire/theorique/

Quantum information theory, distributed quantum computation

Professor Mio Murao’s research group made key breakthroughs in quantifying and manipulating complex, high-dimensional quantum entanglement to surpass classical computing limits.
https://www.s.u-tokyo.ac.jp/en/people/murao_mio/

Quantum computation using electron spins and correlated electron systems.

https://scholars.cityu.edu.hk/en/persons/xwang485/

Astronomy. data-Driven Discovery, Observational Cosmology

Dr. Khee-Gan Lee is a pioneering astronomer who specializes in the tomographic 3D mapping of hydrogen absorption to analyze the "cosmic web" during the "Cosmic Noon" period 10 billion years ago. He led the highly successful CLAMATO spectroscopic survey on the Keck-I Telescope and serves as the primary survey coordinator for the prestigious Prime Focus Spectrograph (PFS) Strategic Survey Program on the Subaru Telescope.
https://db.ipmu.jp/member/personal/1310en.html

His fields of research include plasma physics, plasmas for surface modification and functionalization, advanced materials and green technologies. He has over 10 granted patents with examination in the last 10 years and additional 5 without the examination. He is a co-founder of a spin-out company Plasmadis. His inventions had impact also on 4 new jobs created in different companies.