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XSG Group

Extreme Quantum Materials Discovery | Yang Ding
Portrait of Yang Ding

Yang Ding

Associate Director & Staff Scientist

Quantum Materials Profile

Extreme Quantum Materials Discovery

Yang Ding’s team investigates the emergent electrodynamics of quantum materials under high pressure, employing synchrotron X-ray, laser spectroscopic, and transport methods, along with theoretical modeling. Their research primarily targets breakthroughs in Mott physics, high-temperature superconductivity, and topological properties.

Research Directions

Selected Publications

Full publication list
130+ publications; h-index 36 · as of Apr. 2026
2026

Pressure-induced 18 K superconductivity and two superconducting phases in CuIr2S4

Phys. Rev. Lett. 136, 096505 (2026) · Editors' Suggestion
2024

Unveiling a Novel Metal-to-Metal Transition in LuH2: Critically Challenging Superconductivity Claims in Lutetium Hydrides

Matter Radiat. Extremes 9, 037401 (2024)
2022

Novel valence transition in elemental metal europium around 80 GPa

Physical Review Letters; HPSTAR Highlight
2018

Solids, liquids, and gases under high pressure

Reviews of Modern Physics; HPSTAR Highlight
2016

Pressure-induced confined metal from the Mott insulator Sr3Ir2O7

Physical Review Letters; APS Science 2016
2014

Novel high-pressure monoclinic metallic phase of V2O3

Physical Review Letters; APS Science highlight
2009

Pressure-induced magnetic transition in manganite (La0.75Ca0.25MnO3)

Physical Review Letters; Phys.org
2008

Novel pressure-induced magnetic transition in magnetite (Fe3O4)

Physical Review Letters; APS Science 2008
2007

Structural phase transition of vanadium at 69 GPa

Physical Review Letters; Carnegie Science

Featured Research Infrastructure

Integrated low-temperature, high-magnetic-field, and high-pressure physical property measurement system
Platform

Integrated Physical Property Measurement System

Designed in-house around key scientific problems, this platform integrates low temperature, strong magnetic fields, and high pressure for synchronized structural and electrical characterization.

Magnetic field up to ±9 T · Operating temperature 7–400 K