Radiation and particles
Exposure, lifetime, anomaly diagnosis, and mission timing depend on local particle conditions and changing radiation context.
Space Environment Intelligence
The local intelligence layer for space operations
Orbit Axiom builds modular sensing nodes and software for radiation, magnetic-field, plasma, GNSS TEC/scintillation, and lunar dust awareness across Earth orbit, cislunar space, and the lunar surface.
GOES-R
DSCOVR
SWFO-L1
NOAA / NASA instrumentation
Earth Orbit
Radiation, plasma, MAG, GNSS TEC and scintillation products.
Cislunar
Local context for lunar orbiting assets and upstream warning.
Lunar Surface
Dust, charging, radiation, and field awareness for surface systems.
API / Alerts / Mission Hooks
14,200
functioning satellites in orbit today
$230.6M
Space Weather Next L1 spacecraft order
15
planned CLPS lunar deliveries by 2028
Commercial
first flight node — pre-seed round in progress
The Missing Layer
Space operations still infer local risk from distant measurements
The operating environment changes locally. Spacecraft, lunar systems, and national-security missions need situational awareness where assets actually operate, not only post-event reconstruction from sparse reference sensors.
Plasma and magnetic fields
Charging, safing, instrument context, and geospace coupling require measurements close to the mission, not only upstream references.
GNSS TEC and scintillation
Ionospheric structure affects communications, navigation, and anomaly awareness for commercial, civil, and national-security workflows.
Platform
01
02
03
04
Hardware opens the door. Workflow becomes the moat.
Orbit Axiom is a sensing-data-software stack. Reusable flight electronics feed a calibrated environment data layer, which feeds software products that become part of mission operations.
Sense
Flight nodes and hosted payload integrations collect local radiation, magnetic-field, plasma, GNSS, and dust signals.
Fuse
Calibration, event context, and cross-sensor validation turn raw measurements into usable environment intelligence.
Deliver
APIs, dashboards, alerts, and historical datasets bring the environment into operator and developer workflows.
Act
Mission software hooks support planning, safing, autonomy, early warning, and anomaly investigation.
Operating Domains
One core stack. Multiple mission front ends.
The same sensing and data model expands across domains because the causal problem is the same: local environment signals change mission decisions.
Earth-orbit nodes for SWx and ionospheric anomaly awareness
Hosted payloads create the fastest path to first data, pilots, and software subscriptions.
Commercial operations
Spacecraft anomaly context, communications and navigation disruption awareness, and API feeds for operational teams.
Government workflows
Local environment data for launch context, civil space weather services, mission assurance, and early anomaly cueing.
Local context for lunar and cislunar infrastructure
As lunar operations become repeatable, local environment awareness shifts from science payload to mission infrastructure.
Lunar orbit
Gateway, landers, and lunar orbiting assets need local context for radiation, charging, and field conditions.
Lunar surface
Habitats, rovers, suits, seals, optics, radiators, and solar arrays feel the environment directly.
Dust is the fourth lunar signal
Keep the tri-sensor core. Add rover-mounted dust sensing as the lunar front end for charge, adhesion, ingress, and contamination context.
Protect hardware
Seals, optics, solar arrays, radiators, and mobility systems need local dust-risk context.
Protect crew
Surface environment intelligence supports EVA planning, ingress control, and contamination-aware operations.
National Security
Signal
Ionospheric and electromagnetic disturbance
Measure
Multi-phenomenology signature
Fuse
Cross-channel attribution
Deliver
Calibrated cueing
Environment intelligence for contested-domain awareness
GNSS TEC and scintillation monitoring, combined with plasma, magnetic-field, and far-ultraviolet sensing, delivers multi-phenomenology ionospheric and electromagnetic anomaly awareness for communications, navigation, launch, missile-defense, and contested-domain workflows. Orbit Axiom measures environmental signals through physically independent channels and delivers calibrated context for early warning, attribution, and mission assurance.
High-energy atmospheric and space events leave measurable structure across multiple sensing channels.
GNSS, plasma, magnetic-field, and FUV front ends track signal behavior relevant to navigation, communications, and contested-domain operations.
Physically independent channels separate environmental background from operational anomalies, supporting discrimination and attribution that no single sensing modality can deliver alone.
Alert feeds, API hooks, and mission-software integration without exposing sensitive operational assumptions.
Venture Logic
Reusable hardware on the front end. Recurring data on the back end.
The same electronics and data model create several revenue layers: flight hardware, hosted integrations, data subscriptions, software access, and government pilots.
Hardware and integration
Flight units, hosted payload packages, and mission-specific configurations.
Data subscriptions
Environment feeds, alerts, and historical datasets for operators and civil users.
API and software
Dashboard seats, developer access, mission hooks, autonomy inputs, and analytics.
Government programs
Pilots, hosted demos, payload opportunities, and commercial data buys.
Team
The physics-to-hardware execution pair
Orbit Axiom is built by founders who have worked inside the instrumentation and operations context that today protects space assets.