
According to the Institute of Automation under the Chinese Academy of Sciences (CAS), Chinese researchers have developed FLARE, an AI-based model that can predict stellar flares with extraordinary accuracy. Astronomical research, particularly to understand magnetic activity on stars and to measure the habitability potential of far-off exoplanets, is a remarkable accomplishment.
FLARE was produced in partnership with the CAS National Astronomical Observatories Flare, using the ScienceOne intelligent research platform to analyze light curves (charts measuring the brightness of a star over time), plus the star’s physical characteristics (mass, age, and rotation velocity) and past flares, to predict future impending magnetic blasts.
Why Stellar Flares Matter
Stellar flares are intense bursts of radiation resulting from sudden magnetic field releases in a star’s atmosphere. These flares offer crucial insight into stellar structure and activity cycles, and can significantly impact nearby planetary systems, especially those that might host life. Predicting such flares has long been a challenge due to limited observational data and complex variables.
How FLARE Works
FLARE’s strength lies in its unique neural architecture, which includes soft prompt modules and residual record fusion modules. These allow the AI to efficiently extract features from light curves and adapt to different stellar behavior patterns, even when the same star exhibits varying flare tendencies. The model’s versatility enables precise flare forecasting across diverse types of stars.
According to Chen Yingying, a lead researcher from CAS, “FLARE not only fills a gap in current space weather modeling but also helps scientists explore how magnetic activity shapes the evolution of stars and the environments of their surrounding planets.”
A Leap for AI in Space Research
FLARE’s successful development highlights the increasing importance of artificial intelligence in astronomical discovery. It also demonstrates how AI can uncover patterns hidden in massive datasets, bringing new efficiency and accuracy to space research.
The FLARE project has already gained international recognition. The research paper describing its methodology and applications has been accepted by the 34th International Joint Conference on Artificial Intelligence (IJCAI 2025)—a testament to the model’s global relevance and technical strength.
Looking Ahead
By enabling the timely and accurate prediction of stellar flares, FLARE opens doors for deeper exploration of star systems, better protection for space missions, and improved understanding of the cosmos. It also provides a crucial tool for assessing whether exoplanets orbiting active stars might support life.
As China continues to invest in AI and space science, innovations like FLARE are placing the country at the forefront of the global astronomical AI race.