Master orbital mechanics, link budgets, and constellation design with interactive tools and real-time calculations
Design and visualize satellite constellations in real-time
Track live satellites using real-time TLE data from space agencies and organizations
Allocates distinct frequency bands to different users, allowing simultaneous transmission without interference. Simple to implement but suffers from bandwidth inefficiency.
Divides transmission time into slots, assigning each user a specific time slot. Offers improved spectral efficiency but requires precise synchronization.
Utilizes unique spreading codes to distinguish between users sharing the same frequency band. Provides enhanced security and interference resistance.
Leverages spatial separation through multi-beam antennas, enabling frequency reuse across different geographic regions.
Fundamental principles governing satellite orbits based on gravitational mechanics.
Various forces cause deviations from ideal orbits including Earth's oblateness, atmospheric drag, and solar radiation pressure.
Employ frequency reuse through multi-beam architectures, dramatically increasing capacity with hundreds of spot beams.
Utilize reconfigurable hardware that adapts to changing traffic patterns throughout the satellite's lifetime.
Replace analog components with digital signal processing, enabling dynamic bandwidth allocation and improved efficiency.
Leverage laser technology for inter-satellite and ground links, offering data rates exceeding 100 Gbps.