We present a groundbreaking technology for detecting, tracking, and identifying hypersonic vehicles that goes beyond the traditional spectral bands of the Overhead Persistent Infrared (OPIR) system. Through a comprehensive model of sensor characteristics, orbital parameters, target and background signatures, and glide/dive trajectories, we will optimize our sensor design and orbit using AI/ML techniques to achieve maximum detection and tracking capabilities.
Benefit: Our technology is of significant value to the government's mission of developing the National Space Defense Architecture and detecting hypersonic threats. By reducing the number of required satellites and eliminating the need for costly cooling of detectors in space, our sensors can lead to substantial cost savings and accelerate the deployment of the NSDA. Additionally, our work supports NASA's research interests in developing thermal protection systems for planetary entry, as well as the agency's Planetary Defense activities, which involve monitoring and tracking asteroids' atmospheric entry. The benefits of our technology extend beyond government and military applications, with potential commercial uses in the aerospace industry and beyond.
Keywords: International Space Station, International Space Station, hypersonic vehicle, Spaceborne Sensors, Radiative Transfer, Detection & Tracking Algorithms, Atmospheric Entry
