Session
Advanced Technologies 2
Location
Salt Palace Convention Center, Salt Lake City, UT
Abstract
This paper introduces a model framework for autonomous hyperspectral segmentation that couples a foundation model with a supervised segmentation head to enable compact, high performance on-orbit scene understanding. This approach is designed to deliver end-to-end onboard processing, inference, confidence scoring, and prioritization so the spacecraft performs interpretation at or near image collection time and minimizes downlink usage by transmitting only high-value or high-interest outputs rather than full image streams. A key design element is adaptive intelligence over mission lifetime: low-size, over-the-air partial models updates as small as kb-scale enable post-launch retuning and mission-specific refinement without GB-scale data transfer. By reusing the foundation model weights and uplinking only compact task-specific updates, the system minimizes both training overhead and in-flight model upload requirements. Together, these design choices shift mission value from raw data return to onboard prioritization and selective downlink under constrained communications.
Document Type
Event
Intelligence Where Data is Born: Vision Transformer-Based On-Orbit Change Detection for Earth Sensing
Salt Palace Convention Center, Salt Lake City, UT
This paper introduces a model framework for autonomous hyperspectral segmentation that couples a foundation model with a supervised segmentation head to enable compact, high performance on-orbit scene understanding. This approach is designed to deliver end-to-end onboard processing, inference, confidence scoring, and prioritization so the spacecraft performs interpretation at or near image collection time and minimizes downlink usage by transmitting only high-value or high-interest outputs rather than full image streams. A key design element is adaptive intelligence over mission lifetime: low-size, over-the-air partial models updates as small as kb-scale enable post-launch retuning and mission-specific refinement without GB-scale data transfer. By reusing the foundation model weights and uplinking only compact task-specific updates, the system minimizes both training overhead and in-flight model upload requirements. Together, these design choices shift mission value from raw data return to onboard prioritization and selective downlink under constrained communications.
