China tests lunar construction bricks in space for moon base ambitions

China has successfully returned its first batch of experimental lunar soil bricks after a year in space, testing their durability for future moon construction. In a separate scientific achievement, the Jiangmen Underground Neutrino Observatory has confirmed the existence of "solar neutrino tension" with unprecedented precision.
China has retrieved its inaugural set of experimental lunar soil bricks from space, marking a significant advancement in its preparations for constructing infrastructure on the Moon. The building materials returned to Earth aboard the Shenzhou-21 spacecraft after completing a full year in orbit, where they were subjected to the harsh environment of space to evaluate their potential for use in future lunar habitats.
Lunar Infrastructure Development Plan
This project represents a key phase in China's methodical lunar exploration strategy. The simulated lunar-soil samples were initially transported to the space station in November of last year via the Tianzhou-8 cargo spacecraft. According to experts cited by state media, the bricks maintained good structural integrity throughout their orbital exposure. The program will continue with additional sample batches scheduled to return after one, two, and three years for comprehensive analysis as China works toward its goal of landing astronauts on the Moon by 2030.
Breakthrough in Neutrino Physics
In a parallel scientific development, China's Jiangmen Underground Neutrino Observatory (JUNO) has announced its first major physics breakthrough. The facility, recognized as the world's largest transparent "ghost particle" detector, has confirmed the existence of a long-theorized discrepancy known as "solar neutrino tension." This phenomenon describes a persistent mismatch between measurements of neutrinos from the Sun and those originating from nuclear reactors on Earth.
Unprecedented Measurement Precision
During its initial operational phase from late August to early November, JUNO achieved measurement accuracy 1.5 to 1.8 times greater than any previous experiment. This enhanced precision definitively verified that the observed inconsistency is a real physical phenomenon rather than a measurement error. The observatory will now focus on its primary scientific mission: determining the "mass ordering" of neutrinos to identify which of the three known types is the heaviest.
Reklam yükleniyor...
Reklam yükleniyor...
Comments you share on our site are a valuable resource for other users. Please be respectful of different opinions and other users. Avoid using rude, aggressive, derogatory, or discriminatory language.