Networking that doesn't stop at the atmosphere.

The same protocol stack that keeps a phone connected in Tehran can carry a science payload from the far side of the Moon. One network layer for Earth, orbit, and deep space.

The Problem

Why space breaks the internet

Contact windows

A satellite is overhead for minutes, then gone for hours. Regular internet gives up instantly. Our protocol waits for the path to return, then delivers.

Light-time delay

Earth to Moon: 2.6 seconds. Earth to Mars: up to 24 minutes. No regular protocol survives that. Ours was built for it.

Radiation & packet loss

Solar storms and cosmic rays corrupt data constantly. Our stack retransmits, re-routes, and keeps the data moving even when individual links fail.

Compatibility

Built on the standards space already uses

NASA DTN Bundle Protocol v7 RFC 9171, interoperable with ION, HDTN, μPCN
LunaNet Interoperability Specification v5 NASA / ESA / JAXA, published January 2025
CCSDS Bundle Protocol Specification The international space agency consensus
ESA ARTES programs Open call for resilient SatCom networking
NASA HDTN reference implementation High-rate DTN router for science downlink
NIST post-quantum cryptography Hybrid handshake: classical + lattice + code-based
Where It Fits

Four environments, one stack

LEO constellations

Satellite fleets need routing that survives handovers and partial failures. Data keeps moving across the constellation without waiting for confirmations from every hop.

Deep space probes

From lunar relays to Mars orbiters: store, carry, forward. Data bundles travel autonomously across light-minutes of delay with quantum-safe verification.

Ground station mesh

Multiple ground stations instead of a single point of failure. Data is handed between operators with cryptographic receipts. Nobody trusts anybody, the data still arrives.

Disaster recovery

When cables are cut and satcom is the only link, the same stack reuses satellite contact windows to get messages out and coordination back in.