At 10:40 on September 17, the Kuaizhou-11 solid state carrier rocket ignited and launched at the Jiuquan Satellite Launch Center, successfully launching the Caiyun SAR01 star and the star consortium Tianyuan YG01 into scheduled orbits. This is the world's first commercial medium inclination InSAR remote sensing satellite to successfully enter orbit. The reporter learned from Tianyi Space that unlike traditional InSAR satellites in sun-synchronous orbit, this group of satellites uses a medium inclination orbital design, thus achieving three core capability leaps: one is to achieve high-frequency revisits through medium inclination orbits to solve the “slow revisit” industry pain points of traditional InSAR, which can reduce the interference revisit cycle in the target area from the current few days to 1 day. Subsequent satellite networks can be further shortened to several hours; Second, three-dimensional deformation inversion is achieved under a medium inclination observation system to decipher the “unmeasurably accurate” north-south deformation of traditional InSAR Difficulty; the third is through collaboration from multiple perspectives Imaging eliminates observation blind spots in urban high-rise areas and deep alpine valleys, and solves the pain points of the traditional InSAR industry of “not being able to see everything”.

At 10:40 on September 17, the Kuaizhou-11 solid state carrier rocket ignited and launched at the Jiuquan Satellite Launch Center, successfully launching the Caiyun SAR01 star and the star consortium Tianyuan YG01 into scheduled orbits. This is the world's first commercial medium inclination InSAR remote sensing satellite to successfully enter orbit. The reporter learned from Tianyi Space that unlike traditional InSAR satellites in sun-synchronous orbit, this group of satellites uses a medium inclination orbital design, thus achieving three core capability leaps: one is to achieve high-frequency revisits through medium inclination orbits to solve the “slow revisit” industry pain points of traditional InSAR, which can reduce the interference revisit cycle in the target area from the current few days to 1 day. Subsequent satellite networks can be further shortened to several hours; Second, three-dimensional deformation inversion is achieved under a medium inclination observation system to decipher the “unmeasurably accurate” north-south deformation of traditional InSAR Difficulty; the third is through collaboration from multiple perspectives Imaging eliminates observation blind spots in urban high-rise areas and deep alpine valleys, and solves the pain points of the traditional InSAR industry of “not being able to see everything”.