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| Kibo Remote Manipulator System | |
|---|---|
| Name | Kibo Remote Manipulator System |
| Country | Japan |
| Operator | Japan Aerospace Exploration Agency |
| Launched | 2008 |
| Function | Robotic manipulator for laboratory module |
| Attached to | International Space Station |
Kibo Remote Manipulator System is a robotic manipulator designed to support external operations on the Japanese Experiment Module known as Kibo aboard the International Space Station. Conceived, built, tested, and operated through partnerships among Japanese, American, Canadian, European, and Russian organizations, the system integrates payload handling, inspection, and logistics tasks that interface with spacecraft, habitat modules, and visiting vehicles. It serves scientific, maintenance, and logistical roles across a variety of international missions and cooperative programs.
The system operates in concert with the Japanese Experiment Module, International Space Station, Japan Aerospace Exploration Agency, National Aeronautics and Space Administration, Canadian Space Agency, and industrial partners such as Mitsubishi Heavy Industries and Kawasaki Heavy Industries. It supports activities involving the Space Shuttle era, the HTV (H-II Transfer Vehicle), the Cygnus (spacecraft), and the SpaceX Dragon. The manipulator interfaces with modules and experiments deployed during expeditions organized by multinational crews from agencies including European Space Agency, Roscosmos, Axiom Space, and JAXA. Control and telemetry have been demonstrated during joint training with institutions such as Johnson Space Center, Tsukuba Space Center, Marshall Space Flight Center, and universities including University of Tokyo and Tohoku University.
The architecture draws on heritage from robotic arms like the Shuttle Remote Manipulator System and the Canadarm2, while incorporating unique elements tailored to Kibo. Major components include a base interface compatible with the Exposed Facility (JEM-EF), an articulating boom assembly, end-effectors designed for grappling External Facility payloads and berthing adapters compatible with Common Berthing Mechanism, and avionics leveraging heritage from H-II Transfer Vehicle systems. Sensors include stereoscopic cameras, force-torque sensors, and rendezvous aids similar to those used on Progress (spacecraft) and Soyuz (spacecraft). Power and data links integrate with the Station-to-Shuttle Power Transfer System legacy architecture and station bus systems managed by NASA Glenn Research Center and Tsukuba Space Center teams.
Operators train in simulators at centers including Johnson Space Center and Tsukuba Space Center and coordinate procedures with flight controllers from Mission Control Center Houston and Tsukuba Control Center. Capabilities include remote manipulator operations for payload transfer, external experiment installation, in-orbit inspection akin to tasks performed by Canadarm2 and Dextre, and support for extravehicular activity planning as with Spacewalks by astronauts from United States Navy and Japan Self-Defense Forces backgrounds who have served as crewmembers. The system supports berthing of logistics carriers such as HTV, SpaceX Dragon, Orbital ATK Cygnus, and interfaces used during missions involving Space Shuttle Atlantis and Space Shuttle Discovery in the program’s history.
Development involved collaborations among JAXA, Mitsubishi Heavy Industries, Kawasaki Heavy Industries, and research institutions including Ritsumeikan University and Kyoto University. Ground testing used facilities at Tsukuba Space Center and environmental chambers at National Research Institute for Earth Science and Disaster Resilience and Atsugi Research Center. Integration testing paralleled qualification campaigns like those for H-II Transfer Vehicle and used methodologies practiced at Kennedy Space Center and Johnson Space Center. Simulations employed software toolchains from companies and labs that have worked on Robonaut and DARPA-related robotic prototypes.
The manipulator has been used in operations during expeditions involving commanders and flight engineers from agencies such as NASA, JAXA, ESA Astronaut Corps, Roscosmos Cosmonaut Training Center, and commercial crews organized by SpaceX and Axiom Space. Notable uses include installation and retrieval of experiments on the Exposed Facility, transfer operations for Japanese Experiment Module - Pressurized Module, and participation in logistics exchanges during missions with HTV and SpaceX Dragon. The system contributed to scientific campaigns associated with institutions like University of Tokyo, Osaka University, Waseda University, and international consortia tied to European Space Agency experiments.
Maintenance procedures are coordinated by JAXA and supported by international partners including NASA and CSA. Upgrades have drawn on lessons from Canadarm2 maintenance and modernization efforts, and incorporated improvements from manufacturers such as Mitsubishi Heavy Industries and Kawasaki Heavy Industries. Spare parts logistics have been managed through supply chains including operations at Tanegashima Space Center and logistics hubs like Kennedy Space Center and Marshall Space Flight Center. Training for servicing has been provided at Tsukuba Space Center and in neutral buoyancy facilities such as the Neutral Buoyancy Laboratory.
Program management balances contributions and operations across JAXA, NASA, CSA, ESA, and Roscosmos frameworks, with contractual and technical roles fulfilled by industrial partners including Mitsubishi Heavy Industries, Kawasaki Heavy Industries, and academic collaborators like University of Tokyo. Cooperative agreements align with international frameworks similar to those used by the International Space Station Program and are coordinated through mission planning centers such as Mission Control Center Houston and Tsukuba Control Center. International training exchanges have included personnel from European Astronaut Corps, Canadian Astronaut Corps, and national space agencies collaborating on long-duration missions.
Category:Space robotics