Leading the industry in high-precision spacecraft momentum management systems.
Our high-inertia flywheels represent the pinnacle of Spacecraft Attitude Control Systems (ACS). By storing and releasing angular momentum, these mechanical devices enable satellites to maintain precise orientation without the need for consumable propellant. Whether it is a geostationary relay or the infrastructure involved in installing starlink dish arrays in orbital shells, our technology ensures sub-RPM precision for critical telemetry and communication.
The technical superiority of our system lies in the integration of high-inertia wheels and low-friction bearings. Driven by high-efficiency electric motors, our flywheels operate in multiple modes, including Speed and Current modes, to provide seamless torque transitions. This maintenance-free architecture is engineered for deep space exploration, where reliability and long-term operational stability are non-negotiable requirements for mission success.
Three fundamental pillars ensuring mission-critical stability in orbit.
Optimized storage and release of rotational energy for absolute orientation control.
Intelligent control boards ensuring synchronization and rapid response.
Materials and lubrication engineered for extreme thermal cycles and void environments.
Quantifying stability and energy efficiency across our flywheel product range.
Detailed parametric data for CG-DJ series flywheels.
Proven stability across global aerospace initiatives.
Deployed CG-DJ-FW-150mN·m for a heavy-duty communications satellite requiring extreme pointing accuracy.
Integration of compact 3mN·m flywheels for a swarm of 12 experimental nanosatellites.
Provided the high-torque 15mN·m series for a probe requiring stability during deep space transit.
Implementation of 1.4mN·m wheels for rapid orientation shifts during planetary mapping.
High-precision RPM control for a telescope satellite ensuring zero-blur imaging of distant galaxies.
Providing momentum wheels for high-density orbital networks to maintain link alignment.
Tailored solutions for demanding orbital environments.
Ensuring high-gain antenna alignment for orbital internet constellations and the process of installing starlink dish systems in space.
Maintaining stability for interplanetary missions where fuel for orientation is limited.
High-precision pointing for multispectral cameras and LIDAR sensors on Earth observation satellites.
Providing ultra-compact and power-efficient wheels for CubeSat architectures.
Maintaining gyroscopic stability for modular living and research facilities in orbit.
Ensuring extreme angular momentum precision for deep-space telescopes.
All units undergo rigorous TVAC (Thermal Vacuum) testing to ensure operational integrity from -50°C to +100°C.
Our proprietary balancing protocol eliminates micro-vibrations, critical for high-resolution imaging payloads.
Using low-outgassing alloys and space-certified lubricants to prevent lens contamination.
Certified by global aerospace standards for seamless integration into international space missions.
Expert answers to common technical and commercial inquiries.
Get in touch with our engineers to configure the perfect momentum control system for your spacecraft.