Enhanced On-Orbit Safety through Autonomous Operations Across Domains

Scout Space proposes a groundbreaking autonomous Space Traffic Management (STM) system to mitigate the increasing collision risks posed by the rapid proliferation of spacecraft and orbital debris. Traditional ground-based tracking systems suffer from latency and coverage limitations, creating operational blind spots that threaten spacecraft safety. Scout’s innovative approach integrates low Size, Weight, Power, and Cost (SWAP-C) optical SDA payloads with proprietary real-time collision analysis algorithms, enabling onboard autonomous decision-making for self-protect maneuvers. Unlike conventional STM methods that rely heavily on ground-based intervention, Scout’s AI-driven system enables real-time autonomous collision risk assessment, reducing operator workload and enhancing orbital safety. By leveraging multi-source tracking—including Slingshot Aerospace’s Global Sensor Network (GSN)—Scout’s solution ensures more precise conjunction analysis and dynamic risk mitigation. This next-generation STM architecture reduces reliance on human-in-the-loop operations and significantly improves spacecraft survivability in increasingly congested orbits.
Benefits: The proposed technology directly supports NASA’s space sustainability and orbital safety initiatives by advancing autonomous Space Traffic Management (STM) and on-orbit self-protection capabilities. As NASA scales its lunar exploration efforts through Artemis and the Lunar Gateway, traditional ground-based tracking methods alone are insufficient for managing increasing orbital congestion. Scout and Slingshot’s hybrid ground-space STM system enhances NASA’s ability to monitor and predict space hazards in real time, reducing reliance on human-in-the-loop operations and improving response times to conjunction risks. By leveraging AI/ML-powered object detection, conjunction analysis, and autonomous collision avoidance, this technology provides NASA with a scalable, near-real-time solution for tracking millions of Resident Space Objects (RSOs) across Low Earth Orbit (LEO), Geosynchronous Earth Orbit (GEO), and Cislunar space. Scout’s compact, low SWAP-C optical payloads, combined with Slingshot’s Global Sensor Network (GSN), enable a coordinated, persistent surveillance architecture that supports NASA’s evolving STM requirements. This capability is critical for long-duration space operations, including Artemis, Lunar Gateway, and commercial partnerships supporting deep-space logistics. By autonomously orchestrating ground- and space-based observation networks, Scout’s STM system strengthens NASA’s ability to ensure orbital safety, protect assets, and sustain future exploration beyond Earth orbit. The proposed autonomous Space Traffic Management (STM) and collision avoidance system has significant applications across both commercial and government sectors beyond NASA. The rapid expansion of commercial space operations—driven by megaconstellations, on-orbit servicing, and increasing debris hazards—demands real-time, autonomous solutions to ensure orbital safety and mission continuity. Commercial satellite operators, including Starlink, Amazon Kuiper, and OneWeb, require scalable, autonomous collision risk assessment systems to minimize operational disruptions and enable proactive maneuvering without human intervention. Scout’s AI-driven STM system integrates space-based and ground-based tracking to enhance conjunction risk analysis, reduce operator workload, and lower mission costs, making it an essential capability for managing next-generation satellite constellations. Beyond commercial markets, defense and intelligence agencies—including the U.S. Space Force and allied partners—require advanced SSA capabilities for contested space operations. Scout’s system enables persistent, autonomous monitoring of high-value space assets, enhancing resilience against adversarial threats while supporting space superiority objectives. The technology is directly applicable to national security missions, including cislunar surveillance, orbital threat detection, and real-time maneuver assessment. Additionally, Scout’s compact, low SWAP-C optical payloads—combined with Slingshot’s Global Sensor Network (GSN)—create commercial opportunities in satellite inspection, on-orbit servicing, and mission extension markets. These capabilities contribute to the sustainable growth of the global space economy by enabling safer, more efficient orbital operations with reduced reliance on ground-based oversight.