Research Feature

Hydrazide-enabled de novo Chemical Protein Synthesis: Unlocking the Exploration of “Beyond-Biology” Prote...
Crossing the Boundary of Natural Protein ArchitectureBeing able to create any protein that can exist structurally doesn’t just help us lay the groundwork for understanding life’s basic rules—it also drives game-changing innovations in the next generation of medicines and protein-based material...

Quantum anomalous Hall effect in an antiferromagnetic topological insulator
Gate voltage and magnetic fields reveal complex spin-driven topological phases in MnBi2Te4, offering new insights into quantum anomalous Hall physics.IntroductionTopological quantum materials have opened new frontiers in condensed matter physics by enabling dissipationless edge transport and exot...

Tsinghua Fluorescence Lights the Way to Efficient and Stable Blue OLEDs
The sensitized fluorescence approach decouples the harnessing of triplet excitons from the radiative decay of singlets within a single molecule, thereby overcoming the long-standing efficiency–stability trade-off in blue OLEDs for practical applications.Blue organic light-emitting diodes (OLEDs)...

A Two-Dimensional Trapped-Ion Quantum Simulator Exceeds Classical Computing Capabilities
Researchers have built a two-dimensional trapped-ion quantum simulator that can perform quantum simulations beyond the reach of classical computers. This breakthrough paves the way for scaling up the number of controllable qubits to hundreds — a critical step for both quantum simulation and quan...

Hardware and Algorithm Advances Tackle the Grand Challenges of Fault-Tolerant Quantum Computing
Metasurface-generated tweezer arrays trapping atom arrays with 10,000 atoms, a millimeter-scale high-cooperativity optical cavity, and an efficient atom rearrangement algorithm – with these three breakthroughs, Tsinghua takes on the challenge of universal fault-tolerant quantum computing using a...
010-62793001
webmaster@tsinghua.edu.cn