/PRZWT/ On January 22, 2026, in Chengdu Science and Technology Museum, Chengdu, Shiyun Technology showcased the humanoid robot Shiyun Explorer at the "Time Traveler" launch event. This robot, with the identity of "the first robot astronaut engineer in commercial manned spaceflight history", for the first time disclosed its thoughts on embodied intelligent application in extreme aerospace scenarios and the technical implementation path.
Shi Yun Technology stated that the aerospace industry is constantly confronted with three extreme challenges: "extreme working conditions", "zero tolerance for errors", and "extremely strict verification throughout the entire process". Especially in the development of manned cabins and rocket recovery, the requirements for equipment reliability far exceed those in regular scenarios. Conducting joint exploration in such scenarios can more accurately test the stability and practical operation capabilities of embodied intelligence in complex interference and uncertain environments.
At the press conference, the Shiyun Explorer humanoid robot took the stage to interact with the host, Moon Sister. It demonstrated its interaction capabilities and also conveyed Shiyun Technology's continuous investment in the verification of reliability in aerospace-level scenarios and the breakthroughs in such scenarios.
Cao Keqian, the chairman and CEO of Shiyun Technology, said:
"Through testing the reliability of embodied intelligence in extreme space scenarios, we enable robots to withstand complex disturbances and complete tasks stably. This capability, which has been verified at the aerospace level, will eventually be applied to special operations and civilian scenarios. This is the original intention of Shiyun, 'born for extremes and coming to protect.'"
In the future, Shiyun Technology will collaborate with aerospace industry partners on real mission chains, deepening joint exploration: focusing on the engineering constraints and scenario requirements of aspects such as the development and testing of manned cabins, launch support, recovery and unsealing, to provide continuous technical input for material selection, structural optimization, operational adaptation and system engineering upgrades. This will drive the iterative improvement of the reliability and engineering maturity of the robot system, and at the same time explore feasible paths for the migration and reuse of technologies in more specialized and civilian scenarios.
