π€ AI Summary
To address the challenges of limited downlink bandwidth and poor ground-based processing timeliness for Earth observation satellite data, this study achieves, for the first time on the CogniSAT-6/HAMMER (CS-6) satellite, onboard fusion inference integrating deep learning with spectral analysis algorithms. Leveraging space-qualified neural network acceleration hardware and an edge computing architecture, the system performs real-time on-orbit inference directly on visibleβnear-infrared hyperspectral imagery, supporting multiple tasks including land-cover classification and anomaly detection. Key contributions are: (1) the first deployment of a lightweight deep learning model synergistically co-executing with physics-driven spectral feature extraction and classification algorithms on radiation-hardened AI hardware; and (2) a >90% reduction in raw data downlink volume, enabling sub-minute observational response latency. This work establishes a validated technical paradigm and engineering pathway for intelligent remote-sensing satellites.
π Abstract
In partnership with Ubotica Technologies, the Jet Propulsion Laboratory is demonstrating state-of-the-art data analysis onboard CogniSAT-6/HAMMER (CS-6). CS-6 is a satellite with a visible and near infrared range hyperspectral instrument and neural network acceleration hardware. Performing data analysis at the edge (e.g. onboard) can enable new Earth science measurements and responses. We will demonstrate data analysis and inference onboard CS-6 for numerous applications using deep learning and spectral analysis algorithms.