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China's CHIEF1900 is the most powerful centrifuge ever built
It was developed by Shanghai Electric Nuclear Power Group

China's CHIEF1900 is the most powerful centrifuge ever built

Dec 31, 2025
01:24 pm

What's the story

China has unveiled a groundbreaking centrifuge, the CHIEF1900, which is set to revolutionize hypergravity research. With a capacity of 1,900 g*ton, CHIEF1900 is the most powerful centrifuge ever built. Developed by Shanghai Electric Nuclear Power Group, the machine was delivered to Zhejiang University on December 22 for installation. Once operational, it will enable researchers to replicate catastrophic events like dam failures and earthquakes in a lab setting.

Machine capacity

A new record in scientific research

CHIEF1900 surpasses its predecessor, CHIEF1300, which was launched in September with a capacity of 1,300 g*ton and held the world record until now. Both machines are part of the Centrifugal Hypergravity and Interdisciplinary Experiment Facility (CHIEF), located 15 meters beneath Zhejiang University campus to minimize vibrations and ensure stable operation.

International facility

CHIEF complex: A hub for global research collaboration

Approved in 2021 with a budget of CNY 2 billion, the CHIEF complex is part of China's larger plan to build state-of-the-art research facilities and foster international collaboration. The facility welcomes users from universities, research institutes, and industries both domestic and foreign. This makes it a truly global platform for cutting-edge scientific research.

Research potential

How do centrifugal machines work?

Centrifugal machines like CHIEF1900 can generate forces hundreds or even thousands of times stronger than Earth's gravity. This allows scientists to compress time and distance, thus studying phenomena that would otherwise take decades or span kilometers in a lab setting. For instance, to test the structural stability of a 300-meter-tall dam, researchers could make a 3m model and spin it at 100g, replicating real-world stress levels on the full-scale structure.