A multidisciplinary team participating in the Hackathon. We built SWARM — an autonomous AI ecosystem designed to explore exoplanets, secure communications, and synchronize knowledge with near-zero latency across deep space.
This prototype consumes public exoplanet parameters from NASA’s Exoplanet Archive. We use the TAP endpoint below (JSON), which can be queried directly:
curl "https://exoplanetarchive.ipac.caltech.edu/TAP/sync?query=select+pl_name,pl_rade,pl_masse,pl_eqt+from+pscomppars&format=json"
In deep-space operations, latency, intermittent links, and radiation-induced faults make ground-only processing impractical. Placing the intelligence on-orbit (inside satellites and edge probes) enables real-time decisions under tight downlink budgets. SWARM is intentionally split into four specialized AIs to maximize fault isolation, throughput, and mission assurance.
Runs on the instrument bus to detect, rank, and characterize candidates in situ. Performs lightweight spectral filtering, transit-curve spotting, and feature extraction close to the sensor, reducing raw data volume before it ever leaves the spacecraft.
The security and reliability layer. Checks packet integrity, monitors SEUs (single-event upsets), and performs error correction/model rollback. Partitions faults to prevent common-mode failures.
Orchestrates traffic between nodes and ground. Decides what stays at the edge, what to compress, and when to transmit based on link windows and available power. Keeps the mesh alive with DTN.
Maintains the swarm’s global state: versions models, distributes weights, consolidates consensus across nodes, and synchronizes knowledge when links allow. The fabric that keeps everything coherent.
In short:four cooperating AIs deliver resilience, low latency and operability versus a single monolithic agent—critical in radiation-rich, power-limited, and window-scarce environments.
Five minds, one mission. Meet the people behind S.W.A.R.M.