Documentation
Cosmos Genesis Docs
R&D capability areas, physics model references, and platform integration guides spanning the full scope of what Cosmos Genesis models.
R&D Capabilities
Active research areas and planned extensions. Each section describes what Cosmos Genesis models and why it matters — capability pages fill in as corresponding research sprints complete.
Core Science
Peer-reviewed models for solar wind, radiation environments, the full electromagnetic spectrum, orbital mechanics, and satellite positioning — each with measurable accuracy claims and published references.
View docs →Distributed pipeline producing physically accurate stellar populations at any scale. Covers the initial mass function (IMF), stellar aging, many-body gravity (N-body) relaxation, and five automated physics validators with published benchmarks.
View docs →Active R&D
Natural language over your entire generated universe. Ask questions, traverse knowledge graphs, and integrate AI reasoning into your applications.
View docs →Three-identity autonomous engineering: developer, auditor, and knowledge guardian. Structured review gates, self-correction cycles, and full provenance tracking on every code change.
View docs →Coronal mass ejection propagation, Parker spiral field structure, and magnetospheric coupling. Physics-based forecasting of auroral activity and geomagnetic storm intensity.
View docs →Particle flux modeling across radiation belts, planetary surfaces, and deep space. Geiger-scale radiation zone mapping with dose-rate estimation for mission planning and hazard assessment.
View docs →21-band radio signal simulation spanning the full electromagnetic spectrum. Directional lobe rendering for pulsars, quasars, and active galactic nuclei with signal strength and interference modeling.
View docs →Live orbital positioning for operational satellites using two-line element set (TLE)/SGP4 propagation. Full constellation catalog coverage with SPICE kernel integration for high-precision ephemerides.
View docs →Complete trajectory simulation for interplanetary and cislunar missions. Burn sequencing, lunar orbit insertion, trans-Earth injection, and emergency return window analysis.
View docs →Author a system's evolutionary fate in real time — convert stars to white dwarfs, neutron stars, or black holes, decide each planet's outcome, and run N-body integration to stability. Lock relaxed N-body orbits back to Keplerian elements with one click.
View docs →Roadmap
Simultaneous galaxy-level and local-system gravitational integration from a shared timescale control. Watch a star system's planets orbit while the host star moves through a live, gravitationally-integrating galaxy of 100K systems.
Coming soon →Tidal cracking patterns on icy moon surfaces driven by orbital mechanics and gravitational stress. Cryogenic subsurface ocean modeling and geochemical exchange at ice-water interfaces.
Coming soon →Zonal jet stream dynamics governed by Rhines scale turbulence theory. Taylor column formation, polar vortex clustering, and composition-driven cloud deck layering.
Coming soon →Shepherd moon confinement via Hill sphere dynamics. Density wave propagation from Lindblad resonances, gap formation by embedded moons, and braided ring structures driven by orbital resonances.
Coming soon →Secular orbital evolution over billion-year timescales. Kozai-Lidov cycles, tidal recession, Yarkovsky drift for small bodies, and Nice model dynamical instability replay.
Coming soon →Platform & Integration
Three-layer simulation stack (Space Weather, Orbital Mechanics, Surface Operations), sub-meter coordinate precision, Spacecraft, Planet, Instrument, C-matrix, Events (SPICE) kernel pipeline, and production-grade cloud infrastructure.
View docs →OpenAPI 3.1 spec, versioned REST endpoints for generation, queries, scene management, and streaming. Available to Beta members.
Learn more →Fully typed, tree-shakeable SDK with zero runtime dependencies. Integrate generation, scene management, and Asterion AI queries in minutes.
Learn more →Async-native Python client for the Cosmos Genesis API. Works directly with NumPy arrays. The open-source cosmos-python-sdk is in development.
Learn more →Plain-language definitions for the astronomy, physics and computing terms and abbreviations used across these docs.
View docs →